mhurhangee/patent-ind-claim-en huggingface dataset:
A system for handling a thermal compensation, comprising: an image capturing device , comprising: a capturing circuit , configured for capturing a first image; and a first sensing circuit , configured for detecting a first temperature of the image capturing device; a projecting device , comprising: a second sensing circuit , configured for detecting a second temperature of the projecting device; a storage device , configured for storing a plurality of first parameters associated with the image capturing device, a plurality of second parameters associated with the projecting device and a reference image associated with the projecting device; and a processing device , coupled to the image capturing device, the projecting device and the storage device, characterised by : a processing circuit , configured for: compensating the first image according to the first temperature and the plurality of first parameters, to generate a first compensated image; compensating the reference image according to the second temperature and the plurality of second parameters, to generate a second compensated image; and generating a second image according to the first compensated image and the second compensated image. an image capturing device , comprising: a capturing circuit , configured for capturing a first image; and a first sensing circuit , configured for detecting a first temperature of the image capturing device; a capturing circuit , configured for capturing a first image; and a first sensing circuit , configured for detecting a first temperature of the image capturing device; a projecting device , comprising: a second sensing circuit , configured for detecting a second temperature of the projecting device; a storage device , configured for storing a plurality of first parameters associated with the image capturing device, a plurality of second parameters associated with the projecting device and a reference image associated with the projecting device; and a processing device , coupled to the image capturing device, the projecting device and the storage device, characterised by : a processing circuit , configured for: compensating the first image according to the first temperature and the plurality of first parameters, to generate a first compensated image; compensating the reference image according to the second temperature and the plurality of second parameters, to generate a second compensated image; and generating a second image according to the first compensated image and the second compensated image. compensating the first image according to the first temperature and the plurality of first parameters, to generate a first compensated image; compensating the reference image according to the second temperature and the plurality of second parameters, to generate a second compensated image; and generating a second image according to the first compensated image and the second compensated image.
An evacuation system for an aircraft, comprising: a packboard ; an inflatable configured to be packed into the packboard ; a blow-out panel for the packboard , the blow-out panel having an outboard surface comprising an air-flow surface and having an inner surface ; a first strap coupled to the inner surface of the blow-out panel and to the packboard ; and a second strap coupled to the inner surface of the blow-out panel and to the inflatable , wherein the first strap is coupled to the blow-out panel in close proximity to a first edge of the blow-out panel and the second strap is coupled to the blow-out panel in close proximity to a second edge of the blow-out panel , the first edge being positioned opposite the second edge of the blow-out panel . a packboard ; an inflatable configured to be packed into the packboard ; a blow-out panel for the packboard , the blow-out panel having an outboard surface comprising an air-flow surface and having an inner surface ; a first strap coupled to the inner surface of the blow-out panel and to the packboard ; and a second strap coupled to the inner surface of the blow-out panel and to the inflatable , wherein the first strap is coupled to the blow-out panel in close proximity to a first edge of the blow-out panel and the second strap is coupled to the blow-out panel in close proximity to a second edge of the blow-out panel , the first edge being positioned opposite the second edge of the blow-out panel .
An apparatus comprising: power gate circuitry (101 1 ) coupled to a gated power supply node and an ungated power supply node ; bias generator and control circuitry coupled to the power gate circuitry , wherein the bias generator and control circuitry is to turn on or off the power gate circuitry (101 1 ) by providing at least two bias voltages separated in time to gradually turn on or off the power gate circuitry (101 1 ); a driver (102 1 ) to control the power gate circuitry (101 1 ); and a finite state machine ; wherein the bias generator and control circuitry comprises: one or more multiplexers configured to select the at least two bias voltages according to an output of the finite state machine . power gate circuitry (101 1 ) coupled to a gated power supply node and an ungated power supply node ; bias generator and control circuitry coupled to the power gate circuitry , wherein the bias generator and control circuitry is to turn on or off the power gate circuitry (101 1 ) by providing at least two bias voltages separated in time to gradually turn on or off the power gate circuitry (101 1 ); a driver (102 1 ) to control the power gate circuitry (101 1 ); and a finite state machine ; wherein the bias generator and control circuitry comprises: one or more multiplexers configured to select the at least two bias voltages according to an output of the finite state machine .
A compound of formula (V) or a pharmaceutically acceptable salt thereof: Wherein R 1 is selected from R 2 is hydrogen or -CH 3 . Wherein R 1 is selected from R 2 is hydrogen or -CH 3 .
A method for producing biogas comprising the following steps: at least partial fermenting of a cellulose-containing substrate for a first residence time at a temperature in the range of 20°C to 55°C in a first reactor with mesophilic bacteria which are suitable for producing methane from acetic acid, transferring a part of the at least partially fermented substrate out of the first reactor into a second, heatable reactor with hyperthermophilic bacteria, wherein the hyperthermophilic bacteria are suitable for breaking down the at least partially fermented substrate, incubating the at least partially fermented substrate at a temperature in the range of 55°C to 80°C for a second residence time, wherein acetic acid is formed at least partly, returning the substrate with acetic acid out of the second reactor into the first reactor , incubating the substrate with acetic acid in the first reactor , isolating methane-containing biogas out of the first reactor , wherein the step of transferring a part of the at least partially fermented substrate out of the first reactor into a second, heatable reactor comprises transferring the part of the at least partially fermented substrate out of the first reactor into an aeration device for inactivating anaerobic bacteria. at least partial fermenting of a cellulose-containing substrate for a first residence time at a temperature in the range of 20°C to 55°C in a first reactor with mesophilic bacteria which are suitable for producing methane from acetic acid, transferring a part of the at least partially fermented substrate out of the first reactor into a second, heatable reactor with hyperthermophilic bacteria, wherein the hyperthermophilic bacteria are suitable for breaking down the at least partially fermented substrate, incubating the at least partially fermented substrate at a temperature in the range of 55°C to 80°C for a second residence time, wherein acetic acid is formed at least partly, returning the substrate with acetic acid out of the second reactor into the first reactor , incubating the substrate with acetic acid in the first reactor , isolating methane-containing biogas out of the first reactor , wherein the step of transferring a part of the at least partially fermented substrate out of the first reactor into a second, heatable reactor comprises transferring the part of the at least partially fermented substrate out of the first reactor into an aeration device for inactivating anaerobic bacteria.
A system comprising a RF-ablation catheter and a control system, the ablation catheter having a separate distal tip and a plurality of thermocouples distributed within and in thermal communication with the distal tip , including distal thermocouples and proximal thermocouples and a conductive multilayer shell is disposed over the plurality of thermocouples , wherein the distal tip is configured to contact tissue, and wherein the control system is configured to perform a control of the system comprising the following steps: conducting an ablation therapy on the tissue in contact with the ablation catheter tip; receiving temperature data from a plurality of thermocouples distributed about the distal tip of the ablation catheter ; based on at least the received temperature data immediately following the ablation therapy, determining a blood flow in proximity to the ablation catheter tip, wherein a temperature drop after the ablation therapy above a threshold rate is indicative of high blood flow and a temperature drop after the ablation therapy below a threshold rate is indicative of low blood flow; and adjusting the energy level transmitted to the tissue during the ablation therapy, based on the received temperature data, to create a lesion in the tissue. wherein the distal tip is configured to contact tissue, and wherein the control system is configured to perform a control of the system comprising the following steps: conducting an ablation therapy on the tissue in contact with the ablation catheter tip; receiving temperature data from a plurality of thermocouples distributed about the distal tip of the ablation catheter ; based on at least the received temperature data immediately following the ablation therapy, determining a blood flow in proximity to the ablation catheter tip, wherein a temperature drop after the ablation therapy above a threshold rate is indicative of high blood flow and a temperature drop after the ablation therapy below a threshold rate is indicative of low blood flow; and adjusting the energy level transmitted to the tissue during the ablation therapy, based on the received temperature data, to create a lesion in the tissue. conducting an ablation therapy on the tissue in contact with the ablation catheter tip; receiving temperature data from a plurality of thermocouples distributed about the distal tip of the ablation catheter ; based on at least the received temperature data immediately following the ablation therapy, determining a blood flow in proximity to the ablation catheter tip, wherein a temperature drop after the ablation therapy above a threshold rate is indicative of high blood flow and a temperature drop after the ablation therapy below a threshold rate is indicative of low blood flow; and adjusting the energy level transmitted to the tissue during the ablation therapy, based on the received temperature data, to create a lesion in the tissue.
Vehicle seat for a rear seat system of a motor vehicle, comprising a seat part which has a floorpan and a seat cushion arranged on the floorpan , wherein the floorpan is designed to be placed and fastened on a body wall of the motor vehicle, and comprising a fan device integrated into the seat part , which has at least one electrically operated fan and at least one air duct leading from an edge region of the seat part to the fan , wherein the air duct is formed at least substantially between the seat cushion and the floorpan the floorpan has an edge portion in the edge region, which is spaced from the seat cushion and arranged below the seat cushion to form a gap between the floorpan and the seat cushion as an intake opening , and the air duct opens into the intake opening spaced from an outer edge of the seat cushion such that the intake opening extends the air duct below the seat cushion .
A stethoscope , comprising: a housing having a first surface and a second surface , wherein the first surface defines a first groove on a first side of the housing and a second groove on a second side of the housing ; a controller ; a photoplethysmogram sensor assembly operably coupled to the housing and configured to obtain and push photoplethysmogram data to the controller , the photoplethysmogram sensor assembly including: a first optical sensor operably coupled to the housing within the first groove ; and a second optical sensor operably coupled to the housing within the second groove ; a phonocardiogram sensor coupled to the second surface of the housing and configured to obtain and push phonocardiogram data to the controller ; an electrocardiogram sensor assembly coupled to the housing , wherein the electrocardiogram sensor assembly includes a first electrode disposed in the first groove and a second electrode disposed in the second groove , wherein the electrocardiogram sensor assembly is configured to obtain electrocardiogram data and send the electrocardiogram data to the controller ; and a power supply configured to provide an electric current to be applied by the first electrode and detected by the second electrode , wherein the controller is configured to determine an impedance signal based on a variance in the electric current detected by the second electrode . a housing having a first surface and a second surface , wherein the first surface defines a first groove on a first side of the housing and a second groove on a second side of the housing ; a controller ; a photoplethysmogram sensor assembly operably coupled to the housing and configured to obtain and push photoplethysmogram data to the controller , the photoplethysmogram sensor assembly including: a first optical sensor operably coupled to the housing within the first groove ; and a second optical sensor operably coupled to the housing within the second groove ; a first optical sensor operably coupled to the housing within the first groove ; and a second optical sensor operably coupled to the housing within the second groove ; a phonocardiogram sensor coupled to the second surface of the housing and configured to obtain and push phonocardiogram data to the controller ; an electrocardiogram sensor assembly coupled to the housing , wherein the electrocardiogram sensor assembly includes a first electrode disposed in the first groove and a second electrode disposed in the second groove , wherein the electrocardiogram sensor assembly is configured to obtain electrocardiogram data and send the electrocardiogram data to the controller ; and a power supply configured to provide an electric current to be applied by the first electrode and detected by the second electrode , wherein the controller is configured to determine an impedance signal based on a variance in the electric current detected by the second electrode .
A method for generating a test set for inspection of a design being printed by a printing press, said printing press including a plurality of color units, each one of said color units printing a respective color, said design being composed of a plurality of original layers, each one of said original layers including a topography associated with a color respective thereof, said inspection at least including determining the origin of at least one defect in said printed design, said origin at least relates to which color unit caused said at least one defect, the method comprising the procedures of: generating at least one defective layer of said design by introducing at least one selected virtual defect to at least one selected original layer, in at least one selected location; combining layers using a trained synthesis neural network, said layers including said at least one defective layer and remaining ones of said original layers, said synthesis neural network receiving the values of pixels of said layers at the input thereof, said trained synthesis neural network providing at the output thereof a plurality of feature values respective of each pixel in a synthesized image; and generating said test set from said output of said synthesis neural network, said test set including at least one synthesized test image, said at least one synthesized test image including at least one synthesized defect at said at least one selected location, said synthesized defect generated in each synthesized image displaying characteristics relating to a defect that the printing press may have caused to said printed design, said test set being employed to determine the origin of said at least one defect. generating at least one defective layer of said design by introducing at least one selected virtual defect to at least one selected original layer, in at least one selected location; combining layers using a trained synthesis neural network, said layers including said at least one defective layer and remaining ones of said original layers, said synthesis neural network receiving the values of pixels of said layers at the input thereof, said trained synthesis neural network providing at the output thereof a plurality of feature values respective of each pixel in a synthesized image; and generating said test set from said output of said synthesis neural network, said test set including at least one synthesized test image, said at least one synthesized test image including at least one synthesized defect at said at least one selected location, said synthesized defect generated in each synthesized image displaying characteristics relating to a defect that the printing press may have caused to said printed design, said test set being employed to determine the origin of said at least one defect.
A sporting rifle with sound suppressor, the rifle comprising at least a stock, a trigger mechanism and a barrel partially covered over by over-moulded or over-injected material , defining therefore by said over-moulded or over-injected material a first area or housing for the mounting of the sound suppressor following up or alongside the barrel and a second area at least wrapping around a part of the barrel , whereby the sound suppressor comprises: - an inlet wherein the barrel is situated, comprising a support of diameter equal to the second area in which it is fitted, and - an outlet that comprises an attached stop , characterised in that the support has perforations that connect said second area with said first area or housing . - an inlet wherein the barrel is situated, comprising a support of diameter equal to the second area in which it is fitted, and - an outlet that comprises an attached stop , characterised in that the support has perforations that connect said second area with said first area or housing .
Input apparatus , in particular of a vehicle-operator interface, comprising a touchpad , a pedestal secured to the touchpad , an actuation part mounted movably, such as rotatably, pivotably and/or slidably movably, on the pedestal , and a detection device , which is arranged on the touchpad and which comprises a transmitting device for generating an alternating electromagnetic field by means of a transmission signal and a receiving device for receiving the alternating electromagnetic field with generation of a reception signal , and an evaluation unit , which is electrically conductively connected to the detection device ; an electrical resonant circuit arranged in the alternating electromagnetic field, wherein the actuation part is configured to vary a resonant frequency of the electrical resonant circuit in a position-dependent manner, and the evaluation unit is designed, on the basis of at least the reception signal , to detect a position-dependent absorption behaviour of the resonant circuit with respect to the alternating electromagnetic field or a position-dependent emission behaviour of the resonant circuit on account of a current induced in the resonant circuit , more particularly to detect the resonant frequency therefrom, and to determine therefrom position information relating to the position of the actuation part , and wherein the evaluation unit is designed to perform a switching and/or control function depending on the position information, wherein the electrical resonant circuit comprises an electromechanical switching element and the actuation part and the switching element mechanically cooperate in such a way that the electrical resonant circuit is closed or interrupted in a position-dependent manner, and wherein the electromechanical switching element is configured for sliding contacting and comprises at least one slider which is moved synchronously with an adjustment of the actuation part onto and across a contact surface of a printed circuit board of the pedestal in order to close the resonant circuit upon touching contact being established, such that the resonant circuit is closed or interrupted in a position-dependent manner.
A cleaning head onto which a cleaning sheet (S) for wiping a surface to be cleaned (F) is attached and which is moved on the surface to be cleaned (F) in a predetermined direction for wiping the surface to be cleaned (F), the cleaning head comprising: a first member arranged on a side facing the surface to be cleaned (F); and a second member arranged to abut on the first member at least partially on an opposite side of the surface to be cleaned (F), wherein a surface of the first member on the side facing the surface to be cleaned (F) is formed in a plane shape, wherein the second member is a member relatively more rigid than the first member , characterized in that the second member has a protrusion part on an upstream side of an edge of a part abutting on the first member in a moving direction of the cleaning head , the protrusion part protruding toward the side of the first member more than the edge in the moving direction of the cleaning head , and and wherein the first member has a recess part which fits the protrusion part on an upstream side of an edge of a part abutting on the second member in the moving direction of the cleaning head . a first member arranged on a side facing the surface to be cleaned (F); and a second member arranged to abut on the first member at least partially on an opposite side of the surface to be cleaned (F), wherein a surface of the first member on the side facing the surface to be cleaned (F) is formed in a plane shape, wherein the second member is a member relatively more rigid than the first member , characterized in that the second member has a protrusion part on an upstream side of an edge of a part abutting on the first member in a moving direction of the cleaning head , the protrusion part protruding toward the side of the first member more than the edge in the moving direction of the cleaning head , and and wherein the first member has a recess part which fits the protrusion part on an upstream side of an edge of a part abutting on the second member in the moving direction of the cleaning head .