mhurhangee/patent-ind-claim-en huggingface dataset:
Piezoelectric pressure sensor which is suitable for measuring high pressures, having a housing which can be inserted into a measuring bore and a piezoelectric measuring element which is arranged between a sensor diaphragm arranged on the front side of the housing and an inner housing shoulder (11a; 11b), wherein the piezoelectric measuring element consists of a single crystal element (6a; 6b), characterised in that the crystal element (6a; 6b) is clamped with its base surface and its opposite cover surface between a pressure plunger of the sensor diaphragm and a dissipating electrode supported on the housing shoulder (11a; 11b), and in that a lateral surface (7a; 7b) of the crystal element (6a; 6b) connecting the base surface to the cover surface largely rests against an electrically insulating positioning sleeve (12a; 12b) arranged in the housing .
Radiator comprising a body and two reservoirs which are arranged at two opposite sides of the body , the body comprising a plurality of tubes which open at each of the ends thereof into one of the reservoirs , the body comprising at a first of the ends thereof an end plate which extends substantially between the reservoirs , such that the end plate has a substantially U-shaped cross-section with a base which is extended by two lateral wings , each tube being arranged between two spacers with the exception of the first tube (120 1 ), no spacer being interposed between the base of the end plate and the first tube (120 1 ), the wings extending from the base in the direction of the outer side of the body , characterized in that the base extends at least partially in contact with the first of the tubes which is located at said first end of the body .
Filtration unit intended to allow the leucodepletion of the blood or of a blood product, comprising an external pouch provided with at least one inlet orifice and with at least one outlet orifice , the pouch containing a porous element interposed between said orifices, said porous element comprising at least one leucodepletion medium that works by adsorbing and/or by filtering out the leucocytes, characterised in that said porous element further comprises at least one layer of nonwoven provided with a plurality of bumps , each of said bumps having a perforation passing through it in the heightwise direction to form a relief-perforated nonwoven layer.
A camera module comprising: a lighting unit configured to output an output light signal to be emitted to an object; a lens unit configured to concentrate an input light signal reflected from the object, the lens unit including an infrared (IR) filter and at least one lens disposed on the IR filter ; a tilting unit configured to control a tilt of the IR filter so as to shift an optical path of the input light signal; an image sensor unit configured to generate an electric signal from the input light signal concentrated by the lens unit and shifted by the tilting unit ; an image control unit configured to extract depth information of the object using a phase difference between the output light signal and the input light signal being received by the image sensor unit and tilt information of the IR filter ; and a detection unit configured to detect the tilt information of the IR filter and provide the tilt information of the IR filter to the image control unit . a lighting unit configured to output an output light signal to be emitted to an object; a lens unit configured to concentrate an input light signal reflected from the object, the lens unit including an infrared (IR) filter and at least one lens disposed on the IR filter ; a tilting unit configured to control a tilt of the IR filter so as to shift an optical path of the input light signal; an image sensor unit configured to generate an electric signal from the input light signal concentrated by the lens unit and shifted by the tilting unit ; an image control unit configured to extract depth information of the object using a phase difference between the output light signal and the input light signal being received by the image sensor unit and tilt information of the IR filter ; and a detection unit configured to detect the tilt information of the IR filter and provide the tilt information of the IR filter to the image control unit .
A method of producing a timepiece component provided with an insert made of a composite material, comprising the following successive steps: - a step (E0) of forming a body provided with a cavity on one face of said body ; - a treatment step (E2), in the course of which at least one reinforced adhesion zone (Z1, Z2, Z3) is formed on said body ; - a step (E3) of depositing composite material , in the course of which the cavity is filled and the reinforced adhesion zone is covered with said composite material ; - a step of polymerization of the composite material ; characterized in that said reinforced adhesion zone (Z3) is situated, at least partially, outside the cavity and does not cover the totality of the face comprising said cavity of the timepiece component . - a step (E0) of forming a body provided with a cavity on one face of said body ; - a treatment step (E2), in the course of which at least one reinforced adhesion zone (Z1, Z2, Z3) is formed on said body ; - a step (E3) of depositing composite material , in the course of which the cavity is filled and the reinforced adhesion zone is covered with said composite material ; - a step of polymerization of the composite material ;
Reflector for a luminaire, in particular for a luminaire with at least one LED light source, comprising a light inlet end , a light outlet end with at least one substantially rectangular light outlet opening , an optical axis , and a reflector surface which extends between said light inlet end and said light outlet end , where said reflector surface at least in sections in a plane perpendicular to said optical axis defines a polygon, where the reflector surface is formed such that said polygon between said light inlet end and said light outlet end at least in sections rotates about an axis of rotation (R) which is oriented parallel to said optical axis , where said reflector is flattened at said light inlet end and said reflector surface at said flattened light inlet end opens to a base area , said light outlet opening and said base area are formed substantially square-shaped, and said polygon is a point-symmetrical octagon with a 4-fold rotational symmetry, and where said reflector surface is designed such that it extends parabolically in a plane parallel to said optical axis between said light inlet end and said light outlet end , and said polygon rotates between said base area and said light outlet opening along said entire reflector surface such that the corners of said base area transition to those corners of the octagon which open to the centers of said edges of said light outlet opening , and the centers of said edges of said base area transition to those corners of said octagon which open to the corners of said light outlet opening.
An aircraft propulsion system comprising a rotating assembly, the rotating assembly comprising a first rotating part and a second part , wherein the first rotating part is rotatable relative to a second part , the first and second parts mounted on a common axis , a combustion engine arranged to rotate the first part, and an electric motor connected to drive the second part, whereby in a first drive mode, the combustion engine rotates the first part in a first direction relative to the axis while the electric motor drives the second part in a second, opposite direction relative to the axis and characterised in that in a second drive mode, the combustion engine rotates the first part in the first direction and the electric motor does not drive the second part in the second, opposite direction; and in that the electric motor is configured to operate in a third mode to recover energy by windmilling. assembly comprising a first rotating part and a second part , wherein the first rotating part is rotatable relative to a second part , the first and second parts mounted on a common axis , a combustion engine arranged to rotate the first part, and an electric motor connected to drive the second part, whereby in a first drive mode, the combustion engine rotates the first part in a first direction relative to the axis while the electric motor drives the second part in a second, opposite direction relative to the axis and characterised in that in a second drive mode, the combustion engine rotates the first part in the first direction and the electric motor does not drive the second part in the second, opposite direction; and in that the electric motor is configured to operate in a third mode to recover energy by windmilling.
Sensor arrangement for a motor vehicle , having - a pane , - a sensor housing and - an optical sensor , - wherein the sensor housing is disposed on an inner side of the pane such that - between the sensor housing and the pane , a gap is formed in which the optical sensor is disposed, characterised in that - between the sensor housing and the inner side of the pane , a heat conducting element is disposed in order to conduct heat from an interior space of the motor vehicle into the gap between the sensor housing and the pane , - the entire sensor apparatus does not have a heating element to which an electrical voltage can be applied solely for heating purposes, wherein the gap is sealed by the sensor housing , the pane and the heat conducting element . - a pane , - a sensor housing and - an optical sensor , - wherein the sensor housing is disposed on an inner side of the pane such that - between the sensor housing and the pane , a gap is formed in which the optical sensor is disposed, - between the sensor housing and the inner side of the pane , a heat conducting element is disposed in order to conduct heat from an interior space of the motor vehicle into the gap between the sensor housing and the pane , - the entire sensor apparatus does not have a heating element to which an electrical voltage can be applied solely for heating purposes, wherein the gap is sealed by the sensor housing , the pane and the heat conducting element .
A method for the synthesis of methanol , wherein a carbon-containing energy source stream is fed to a synthesis gas reactor unit in order to obtain a synthesis gas stream with hydrogen and oxides of carbon, wherein the synthesis gas stream is fed to a heat recovery device in order to recover heat from the synthesis gas stream and thereafter to a synthesis gas compressor in order to increase the pressure, wherein at least a portion of the pressurized synthesis gas stream is fed to a first reactor stage of a methanol reactor unit for partial conversion into methanol , wherein a residual gas stream with unreacted oxides of carbon is obtained from the methanol reactor unit , the residual gas stream being fed to a recycle compressor in order to increase the pressure of the residual gas stream , wherein the pressurized residual gas stream is fed to the methanol reactor unit for partial conversion into methanol , wherein a recovery stream formed by an unreacted residual gas from the first reactor stage is fed to a hydrogen recovery unit in order to obtain a H recycle stream , the H recycle stream having unreacted hydrogen from the unreacted residual gas , the unreacted hydrogen of the H recycle stream being fed once again to the first reactor stage for at least partial conversion into methanol , characterized in that the pressure of at least a portion of the unreacted hydrogen of the H recycle stream from the first reactor stage up to its feed once again into the first reactor stage is increased along with the unreacted oxides of carbon by means of the recycle compressor .
A method for gas detection and quantification comprising receiving infrared radiation from a scene at a single sensor array comprising first and second sets of infrared sensors used to capture first and second wavelength ranges of the infrared radiation, respectively, wherein the second wavelength range is different from the first wavelength range; capturing (615; 710, 730) first and second images by the first and second sets of infrared sensors respectively, wherein the second image is captured at a different time and position from the first image; detecting a background object in the first image; tracking the background object to identify the background object in the second image; determining first and second radiometric values associated with the first and the second images and correlated to a same location of the background object in the scene; updating a radiometric scene map with the first and second radiometric values; capturing third and fourth images by the first and second sets of infrared sensors, respectively; processing (825-850) the third and fourth images to detect a gas in the scene prior to performing the gas quantification; and performing gas quantification using the updated radiometric scene map and the third and fourth images. receiving infrared radiation from a scene at a single sensor array comprising first and second sets of infrared sensors used to capture first and second wavelength ranges of the infrared radiation, respectively, wherein the second wavelength range is different from the first wavelength range; capturing (615; 710, 730) first and second images by the first and second sets of infrared sensors respectively, wherein the second image is captured at a different time and position from the first image; detecting a background object in the first image; tracking the background object to identify the background object in the second image; determining first and second radiometric values associated with the first and the second images and correlated to a same location of the background object in the scene; updating a radiometric scene map with the first and second radiometric values; capturing third and fourth images by the first and second sets of infrared sensors, respectively; processing (825-850) the third and fourth images to detect a gas in the scene prior to performing the gas quantification; and performing gas quantification using the updated radiometric scene map and the third and fourth images.
A starting control system for a diesel engine, which is arranged to perform control of a starting parameter that changes starting characteristics of an engine , while energizing a glow plug during a period from switching of an engine switch to an ignition-on position to switching of the engine switch to a starter-on position, in which, the starting control system is arranged to compare a required glow waiting time as an energization time of the glow plug required for the temperature of the glow plug to increase to a temperature level suitable for starting of the engine with an actual glow waiting time as an actual energization time for which the glow plug is actually energized from switching of the engine switch to the ignition-on position to switching of the engine switch to the starter-on position in which cranking is started, the starting control system is arranged to control the starting parameter according to a result of the comparison, characterized in that cranking is started according to the controlled starting parameter at the same time the engine switch is switched to the starter-on position and in that the starting parameter subjected to the control includes at least one of main injection timing during starting of the engine , a common rail pressure during starting of the engine , a pilot injection amount of a fuel, pilot injection timing of the fuel, and a target glow temperature.
A mounting bracket (6; 106) adapted for installation of a window in a roof structure, said window comprising a frame including a top frame member , a bottom frame member and two side frame members , the mounting bracket (6; 106) comprising a first bracket leg (7; 107) for fastening to the roof structure, and, for fastening to a frame member , a second bracket leg (8; 108) extending from the first bracket leg (7; 107) at a first angle (α) being essentially orthogonal in an unloaded condition of the mounting bracket (6; 106), where in a first load condition, in which forces (F1) act on the mounting bracket (6; 106) so as to diminish the first angle (α), a first torque threshold (T1) is provided, beyond which plastic deformation of the mounting bracket (6; 106) occurs, and where in a second load condition, in which forces (F2) act on the mounting bracket so as to increase the first angle (α), a second torque threshold (T2) is provided, beyond which plastic deformation of the mounting bracket (6; 106) occurs, the second torque threshold (T2) being different from the first torque threshold (T1) wherein the mounting bracket (6; 106) comprises at least one flange (9; 109) extending at a second angle (β) from the first bracket leg (7; 107) or from the second bracket leg (8; 108) so that an edge (10; 110) of the flange (9; 109) is facing the other bracket leg (8, 7; 108; 107), and wherein, in the first load condition, in which forces (F1) act on the mounting bracket so as to diminish the first angle (α), the edge (10; 110) of the at least one flange (9; 109) is being brought into abutment with said other bracket leg (8, 7; 108; 107) providing the first torque threshold (T1), characterized in that said second angle (β) formed by the at least one flange with the bracket leg from which it extends is other than orthogonal.
Transmission/reception device (12; 120; 1200) for a bus system , having a transmitter for transmitting a transmission signal (TxD) to a first bus wire of a bus of the bus system , which bus system exhibits at least intermittently ensured exclusive collision-free access by a subscriber station to the bus of the bus system , and for transmitting the transmission signal (TxD) to a second bus wire of the bus , and an oscillation reduction unit (15; 150) for damping an oscillation of the bus signal (CAN_H, CAN L) appearing on the bus wires when the transmission signal (TxD) transitions from a dominant bus state to a recessive bus state , wherein the oscillation reduction unit (15; 150) comprises a series connection comprising a first capacitor and a first resistor , which are connectable between the first bus wire and a connection for earth, and/or wherein the oscillation reduction unit (15; 150) comprises a series connection comprising a second capacitor and a second resistor , which are connectable between the second bus wire and a connection for earth, wherein the first and second capacitors each have a value of approximately 50 pF, and wherein the first and second resistors each have a value of approximately 300 Ω or wherein the transmission/reception device (12; 120) is designed to transmit and receive messages using the CAN FD protocol, and wherein the first and second capacitors each have a value of approximately 50 pF, and wherein the first and second resistors each have a value of approximately 300 Ω. a transmitter for transmitting a transmission signal (TxD) to a first bus wire of a bus of the bus system , which bus system exhibits at least intermittently ensured exclusive collision-free access by a subscriber station to the bus of the bus system , and for transmitting the transmission signal (TxD) to a second bus wire of the bus , and an oscillation reduction unit (15; 150) for damping an oscillation of the bus signal (CAN_H, CAN L) appearing on the bus wires when the transmission signal (TxD) transitions from a dominant bus state to a recessive bus state , wherein the oscillation reduction unit (15; 150) comprises a series connection comprising a first capacitor and a first resistor , which are connectable between the first bus wire and a connection for earth, and/or wherein the oscillation reduction unit (15; 150) comprises a series connection comprising a second capacitor and a second resistor , which are connectable between the second bus wire and a connection for earth, wherein the first and second capacitors each have a value of approximately 50 pF, and wherein the first and second resistors each have a value of approximately 300 Ω or wherein the transmission/reception device (12; 120) is designed to transmit and receive messages using the CAN FD protocol, and wherein the first and second capacitors each have a value of approximately 50 pF, and wherein the first and second resistors each have a value of approximately 300 Ω.
Device for measuring firing regime and/or cyclic rate of fire for any type of weapon, comprising: - a self-powered system capable of recovering the energy from firing, - at least one RC accumulator network comprising a capacitor and a resistor in parallel, - an element measuring the voltage at the terminals of the capacitor, - an electronic device capable of calculating the cyclic rate of fire and/or the firing regime from the value measured by the element for measuring the difference in potential, the self-powered system being arranged so as to charge said capacitor upon each firing, characterised in that the self-powered system is configured so as to either inject a predetermined constant charge upon each firing, or impose a constant difference in potential at the terminals of the capacitor upon each firing. - a self-powered system capable of recovering the energy from firing, - at least one RC accumulator network comprising a capacitor and a resistor in parallel, - an element measuring the voltage at the terminals of the capacitor, - an electronic device capable of calculating the cyclic rate of fire and/or the firing regime from the value measured by the element for measuring the difference in potential, the self-powered system being arranged so as to charge said capacitor upon each firing, characterised in that the self-powered system is configured so as to either inject a predetermined constant charge upon each firing, or impose a constant difference in potential at the terminals of the capacitor upon each firing.
A method for managing display of images on a head mounted display (HMD, 802), the method comprising: tracking a gaze of a user wearing the HMD that is displaying a view of a virtual world; detecting that the gaze of the user is fixed on a predetermined area for a predetermined amount of time; capturing a view of a real world with a camera on the front of the HMD; fading out , in response to the detecting, a region of a display of the HMD while maintaining the view of the virtual world in an area of the display outside the region; and fading in the view of a real world in the region as if the HMD were transparent to the user while looking through the region, the fading in including maintaining the view of the virtual world outside the region. tracking a gaze of a user wearing the HMD that is displaying a view of a virtual world; detecting that the gaze of the user is fixed on a predetermined area for a predetermined amount of time; capturing a view of a real world with a camera on the front of the HMD; fading out , in response to the detecting, a region of a display of the HMD while maintaining the view of the virtual world in an area of the display outside the region; and fading in the view of a real world in the region as if the HMD were transparent to the user while looking through the region, the fading in including maintaining the view of the virtual world outside the region.
An isolated antibody, or antigen-binding fragment thereof, that specifically binds human IFNβ, comprising a VH that comprises the amino acid sequence of SEQ ID NO: 28 and VL that comprises the amino acid sequence of SEQ ID NO: 1.
A transparent conductive structure comprising a substrate, a sparse metal electrically conductive layer supported by the substrate, and a coating layer adjacent the sparse metal conductive layer, the coating layer comprising a polymer matrix and a vanadium (+5) stabilization composition, wherein the transparent conductive structure has a total transmission of visible light of at least about 85%, a haze of no more than about 2 percent and a sheet resistance after formation of no more than about 250 ohm/sq.