mhurhangee/patent-ind-claim-en huggingface dataset:
A ring laser gyroscope , comprising: a laser block that defines an optical cavity having an optical closed loop pathway configured to contain a lasing gas; a plurality of mirror structures having an odd number of mirror structures respectively mounted on the laser block, each of the mirror structures having a respective reflective surface that is in optical communication with the optical closed loop pathway; a plurality of electrodes coupled to the laser block, the electrodes configured to generate a pair of counter-propagating laser beams from the lasing gas in the optical closed loop pathway; at least one optical sensor comprising a photo detector device coupled to one of the mirror structures, the optical sensor being in optical communication with the optical closed loop pathway; and a polarizer directly coupled to the optical sensor outside of the optical cavity, the polarizer configured to pass laser light having substantially one polarization mode to the optical sensor; wherein the optical sensor is configured to measure intensity of the laser light having substantially one polarization mode, which allows a length of the optical closed loop pathway to be adjusted; characterized in that : the photo detector device comprises a package that includes a package window that faces a photo detector die inside of the package, wherein the polarizer comprises a polarizing layer located inside of the package on an inner surface of the package window such that the laser light passes through the package window and then the polarizing layer prior to being incident on the photo detector die. a laser block that defines an optical cavity having an optical closed loop pathway configured to contain a lasing gas; a plurality of mirror structures having an odd number of mirror structures respectively mounted on the laser block, each of the mirror structures having a respective reflective surface that is in optical communication with the optical closed loop pathway; a plurality of electrodes coupled to the laser block, the electrodes configured to generate a pair of counter-propagating laser beams from the lasing gas in the optical closed loop pathway; at least one optical sensor comprising a photo detector device coupled to one of the mirror structures, the optical sensor being in optical communication with the optical closed loop pathway; and a polarizer directly coupled to the optical sensor outside of the optical cavity, the polarizer configured to pass laser light having substantially one polarization mode to the optical sensor; wherein the optical sensor is configured to measure intensity of the laser light having substantially one polarization mode, which allows a length of the optical closed loop pathway to be adjusted;
Oil pump arrangement of a motor vehicle transmission, with an oil pump which has a pump part and an electric pump motor , the pump part being operatively connected to the pump motor , the pump part and/or the pump motor being mounted on a housing , the housing delimiting an oil space at least partially, the pump part being mounted within the housing , and the pump motor being mounted on the housing from the outside, there being an intermediate shaft , the intermediate shaft connecting the pump part and the pump motor to one another, the housing having a receptacle , the pump motor engaging at least partially into the receptacle , the housing having a mounting wall which delimits the receptacle , the mounting wall having a reach-through , the pump part being centred on the inside on the mounting wall , and the pump motor being centred on the outside on the mounting wall , the intermediate shaft connecting the pump part and the pump motor to one another through the reach-through , the housing being configured as a clutch housing , characterized in that a control unit is arranged on the pump motor , the control unit being sealed with respect to the pump motor , the control unit being sealed with respect to the receptacle by means of at least one sealing means , the control unit lying at least partially outside the receptacle and therefore also outside the clutch housing , the mounting wall having openings, with the result that oil can pass into the receptacle , the receptacle forming a part of the oil space , the pump motor being situated within the oil space , a gap remaining between the pump motor and the receptacle , it being possible for the pump motor to be cooled by way of the oil on the outer circumference.
A method for adjusting a seat in an autonomous vehicle, the seat comprising a locking mechanism configured to prevent position adjustments of the seat initiated by a pushing force, the method comprising: deactivating the locking mechanism on the seat upon a detection of a start of an autonomous driving mode of the vehicle; and adjusting the seat according to a pushing force on the seat provided by an occupant of the seat. deactivating the locking mechanism on the seat upon a detection of a start of an autonomous driving mode of the vehicle; and adjusting the seat according to a pushing force on the seat provided by an occupant of the seat.
Photovoltaic module comprising at least one solar cell , wherein the solar cell is enclosed by an encapsulation device , characterized in that the photovoltaic module also has an electrolysis unit for dehumidifying the interior of the encapsulation device , wherein the electrolysis unit has a cathode , an anode and an ion conductor connecting the cathode and anode and wherein the electrolysis unit is configured to split water into hydrogen and oxygen.
A method for rounding at least a part of an edge of an opening in the annular surface of a tubular body formed of thermo-formable material, wherein a mandrel is brought into contact with the external edge of the opening , wherein the opening is non-circular and the mandrel has a temperature that allows it to permanently deform the material of the tubular body , characterised in that leaving the internal edge of the opening flushed with the internal surface of the tubular body.
Semiconductor module having at least one first and one second semiconductor component , wherein the first semiconductor component is in the form of a low-side switching transistor and the second semiconductor component is in the form of a high-side switching transistor of a half-bridge circuit and each have an active semiconductor layer arranged within a housing on a carrier , wherein first electrodes of the semiconductor components are configured as drain electrodes, second electrodes of the semiconductor components are configured as source electrodes, and third electrodes of the semiconductor components are configured as gate electrodes, wherein a current path between the at least two semiconductor components is formed by means of a metallic connection clip which connects the first electrode of the first semiconductor component to the second electrode of the second semiconductor component , wherein the first semiconductor component and the second semiconductor component are arranged on the carrier in a manner rotated about 180° with respect to one another, the second electrode and the third electrode of the first semiconductor component and the first electrode of the second semiconductor component face the carrier and the first electrode of the first semiconductor component and the second electrode of the second semiconductor component are arranged in a common plane, and wherein the first electrode of the first semiconductor component and the second electrode of the second semiconductor component are each electrically connected to a first clip side of the metallic connection clip and a second clip side of the connection clip forms an exposed contact point (4.1), wherein the semiconductor module outside the housing has a contact element having a contact surface (5.1) which faces the contact point (4.1) of the second clip side and which is permanently connected via an electrical conductive connection layer (5.3) to the exposed contact point (4.1) of the second clip side , characterized in that the contact element is set up to form an additional high-current path as a phase potential tap of the half-bridge circuit which faces away from the carrier.
A computer device, comprising: a graphics processing unit, GPU, ; a memory to store an application and a modified MIP in a format incompatible with the GPU, the modified MIP includes a plurality of images with varying resolutions corresponding to an original MIP chain for use with textures of the application wherein a highest resolution image was removed from the original MIP chain; at least one processor in communication with the memory; an operating system in communication with the memory, the at least one processor, the GPU, and the application, wherein the application is operable to, when executed at runtime or installation of the application, receive the modified MIP and convert the modified MIP by reconstructing the highest resolution image by applying a trained machine learning model to a first image of the modified MIP chain, and generating a hardware compatible compressed reconstructed MIP chain with the reconstructed highest resolution image and the plurality of images usable by the GPU. a graphics processing unit, GPU, ; a memory to store an application and a modified MIP in a format incompatible with the GPU, the modified MIP includes a plurality of images with varying resolutions corresponding to an original MIP chain for use with textures of the application wherein a highest resolution image was removed from the original MIP chain; at least one processor in communication with the memory; an operating system in communication with the memory, the at least one processor, the GPU, and the application, wherein the application is operable to, when executed at runtime or installation of the application, receive the modified MIP and convert the modified MIP by reconstructing the highest resolution image by applying a trained machine learning model to a first image of the modified MIP chain, and generating a hardware compatible compressed reconstructed MIP chain with the reconstructed highest resolution image and the plurality of images usable by the GPU.
A method of amplifying a phase shift, the method comprising: receiving an input signal in response to a transmitted output signal; generating a reference signal; varying a modulation of at least one of the signals such that a ratio between modulation amplitudes of the input signal and the reference signal is at least 0.9 and at most 1.1, and a phase difference between the reference signal and the input signal is from about 09π to about 1.1π; forming an output signal which comprises a sum of the reference signal and the input signal, following said variation; and filtering said output signal by a bandpass filter to form a filtered output signal, wherein a bandwidth of said bandpass filter is selected such that XG<0.1, wherein X is a noise fluctuation average of said filtered output signal, and G is an expected amplification factor of a phase shift between said input signal and said reference signal. receiving an input signal in response to a transmitted output signal; generating a reference signal; varying a modulation of at least one of the signals such that a ratio between modulation amplitudes of the input signal and the reference signal is at least 0.9 and at most 1.1, and a phase difference between the reference signal and the input signal is from about 09π to about 1.1π; forming an output signal which comprises a sum of the reference signal and the input signal, following said variation; and filtering said output signal by a bandpass filter to form a filtered output signal, wherein a bandwidth of said bandpass filter is selected such that XG<0.1, wherein X is a noise fluctuation average of said filtered output signal, and G is an expected amplification factor of a phase shift between said input signal and said reference signal.
An endoprosthesis having an expanded state and an unexpanded state, the endoprosthesis comprising: a stent , wherein the stent has an inner surface defining a lumen, an outer surface , a first end , a second end , and a thickness defined between the inner surface and the outer surface , wherein the stent has a plurality of openings extending through the thickness; and a polymeric coating adhered to the outer surface of the stent , the polymeric coating comprising a base and a plurality of protrusions extending outwardly from the base , wherein the protrusions are arranged in a micropattern, wherein the base and the stent are coterminous, wherein the base covers the openings of the stent , characterised in that the protrusions are micropillars, and in that the protrusions include a plurality of bumps extending outwardly from a surface of one of the micropillars or a plurality of indentations extending inwardly from a surface of one of the micropillars. a stent , wherein the stent has an inner surface defining a lumen, an outer surface , a first end , a second end , and a thickness defined between the inner surface and the outer surface , wherein the stent has a plurality of openings extending through the thickness; and a polymeric coating adhered to the outer surface of the stent , the polymeric coating comprising a base and a plurality of protrusions extending outwardly from the base , wherein the protrusions are arranged in a micropattern, wherein the base and the stent are coterminous, wherein the base covers the openings of the stent , characterised in that the protrusions are micropillars, and in that the protrusions include a plurality of bumps extending outwardly from a surface of one of the micropillars or a plurality of indentations extending inwardly from a surface of one of the micropillars.
A method of ultrasound reflection measurement using a measurement cell containing a medium and a first ultrasound transducer and a second ultrasound transducer on mutually opposite first and second walls (10a, b) of the cell respectively, the method comprising - transmitting ultrasound from the first ultrasound transducer to the second ultrasound transducer and vice versa transmitting ultrasound from the second ultrasound transducer to the first ultrasound transducer , through the walls (10a, b) of the measurement cell and the medium between the walls (10a,b); - detecting a first and second reflection response using the first and second ultrasound transducer respectively in response to their own transmissions; - using the second and first ultrasound transducer to detect a first and second transmission response to the ultrasound using transmitted by the first and second ultrasound transducer respectively; - computing an ultrasound frequency dependent ratio of a Fourier transform value of a product of signals obtained from the first and second transmission response and a Fourier transform value of a product of signals obtained from the first and second reflection response; - computing ultrasound frequency dependent ultrasound speed and/or attenuation data of ultrasound in the medium from said ratio as a function of the ultrasound frequency. - transmitting ultrasound from the first ultrasound transducer to the second ultrasound transducer and vice versa transmitting ultrasound from the second ultrasound transducer to the first ultrasound transducer , through the walls (10a, b) of the measurement cell and the medium between the walls (10a,b); - detecting a first and second reflection response using the first and second ultrasound transducer respectively in response to their own transmissions; - using the second and first ultrasound transducer to detect a first and second transmission response to the ultrasound using transmitted by the first and second ultrasound transducer respectively; - computing an ultrasound frequency dependent ratio of a Fourier transform value of a product of signals obtained from the first and second transmission response and a Fourier transform value of a product of signals obtained from the first and second reflection response; - computing ultrasound frequency dependent ultrasound speed and/or attenuation data of ultrasound in the medium from said ratio as a function of the ultrasound frequency.
Microelectronic component assembly having: a sensorchip for capturing thermographic images with a front side (VS), a rear side (RS) and a side face (SF) which connects the front side (VS) to the rear side (RS); at least one evaluation circuit (A1), wherein the at least one evaluation circuit (A1) is in contact with the sensorchip , at least in certain areas with the rear side (RS) and/or the side face (SF) of the sensorchip ; a lens (L1), wherein the lens (L1) is arranged on the front side (VS) of the sensorchip , wherein a vacuum (V) is formed between the lens (L1) and the sensorchip , and a cap (K1) is arranged between the lens (L1) and the sensorchip ; wherein the side face (SF) of the sensorchip and/or a side face (SA) of the evaluation circuit (A1) as well as side face (SL) of the lens (L1) have traces of mechanical erosion at least in certain areas; characterized in that the lens (L1) covers the sensorchip , a bezel (B1) is arranged between the lens (L1) and the sensorchip , wherein the bezel (B1) is located between the lens (L1) and the cap (K1), and corresponding side faces of the cap (K1) and of the bezel (B1) have traces of mechanical erosion at least in certain areas. a sensorchip for capturing thermographic images with a front side (VS), a rear side (RS) and a side face (SF) which connects the front side (VS) to the rear side (RS); at least one evaluation circuit (A1), wherein the at least one evaluation circuit (A1) is in contact with the sensorchip , at least in certain areas with the rear side (RS) and/or the side face (SF) of the sensorchip ; a lens (L1), wherein the lens (L1) is arranged on the front side (VS) of the sensorchip , wherein a vacuum (V) is formed between the lens (L1) and the sensorchip , and a cap (K1) is arranged between the lens (L1) and the sensorchip ; wherein the side face (SF) of the sensorchip and/or a side face (SA) of the evaluation circuit (A1) as well as side face (SL) of the lens (L1) have traces of mechanical erosion at least in certain areas; characterized in that the lens (L1) covers the sensorchip , a bezel (B1) is arranged between the lens (L1) and the sensorchip , wherein the bezel (B1) is located between the lens (L1) and the cap (K1), and corresponding side faces of the cap (K1) and of the bezel (B1) have traces of mechanical erosion at least in certain areas.
Load carrier bracket for coupling a load carrier foot to a vehicle, said load carrier bracket comprising a vehicle engaging section and a trough-shaped coupling portion , said trough-shaped coupling portion extending from said vehicle engaging section in longitudinal direction of the load carrier bracket and comprising a holder engaging section which is configured to be releasably engageable with a holder of said load carrier foot , characterized in that said trough-shaped coupling portion is continuously convexly formed in its longitudinal direction such that it is possible to apply higher forces on an outer surface of said trough-shaped coupling portion .
A component for a turbine engine , wherein the turbine engine is selected from the group consisting of gas turbine engines, unducted turbine engines, turboprop engines, turboshaft engines, turbofan engines and turbojet engines; wherein the component is a blade or vane, the component comprising: a wall bounding an interior and defining an exterior surface extending between a leading edge and a trailing edge to define a chordwise direction (C), and radially between a root and a tip to define a spanwise direction (S); and a spar assembly comprising: a hub ; a metallic spar extending from the hub in the spanwise direction (S) into the interior , the metallic spar defining a socket extending in the spanwise direction, the socket having at least one side opening ; a composite spar extending in the spanwise direction (S) between a spar root and a spar tip , at least a portion of the spar root located in the socket ; and a stiffener bonded to at least one of the wall , the metallic spar , or the composite spar , at least a portion of the stiffener extending at least in part through the at least one side opening . a wall bounding an interior and defining an exterior surface extending between a leading edge and a trailing edge to define a chordwise direction (C), and radially between a root and a tip to define a spanwise direction (S); and a spar assembly comprising: a hub ; a metallic spar extending from the hub in the spanwise direction (S) into the interior , the metallic spar defining a socket extending in the spanwise direction, the socket having at least one side opening ; a composite spar extending in the spanwise direction (S) between a spar root and a spar tip , at least a portion of the spar root located in the socket ; and a stiffener bonded to at least one of the wall , the metallic spar , or the composite spar , at least a portion of the stiffener extending at least in part through the at least one side opening . a hub ; a metallic spar extending from the hub in the spanwise direction (S) into the interior , the metallic spar defining a socket extending in the spanwise direction, the socket having at least one side opening ; a composite spar extending in the spanwise direction (S) between a spar root and a spar tip , at least a portion of the spar root located in the socket ; and a stiffener bonded to at least one of the wall , the metallic spar , or the composite spar , at least a portion of the stiffener extending at least in part through the at least one side opening .