mhurhangee/patent-ind-claim-en huggingface dataset:
Method for operating a capacitive a rain sensor of a motor vehicle having an electroconductive structure , which is designed, in at least one measurement, to generate an analogue measurement signal corresponding to a rain heaviness and output it as a correlated output signal , wherein the method comprises the following steps: a) detecting at least one interference signal , which causes interference to the analogue measurement signal and results in an interference-affected measurement signal ; b) at least partly suppressing the interference of the interference-affected measurement signal in at least one signal processing step on the basis of the detected interference signal and c) outputting an at least partly interference-suppressed output signal , wherein the at least one interference signal in step a) is an electromagnetic radio signal, which is a transmitting signal ; in the signal processing step in step b) the at least one interference signal is subtracted from the interference-affected measurement signal ; and the resulting difference signal is output as the at least partly interference-suppressed output signal in step c), wherein by means of the electroconductive structure of the capacitive rain sensor : - on the one hand in a function as rain sensor a rain heaviness is measured and - on the other hand in a function as antenna the electromagnetic radio signal is transmitted, which as interference signal disrupts the measurement. a) detecting at least one interference signal , which causes interference to the analogue measurement signal and results in an interference-affected measurement signal ; b) at least partly suppressing the interference of the interference-affected measurement signal in at least one signal processing step on the basis of the detected interference signal and c) outputting an at least partly interference-suppressed output signal , wherein the at least one interference signal in step a) is an electromagnetic radio signal, which is a transmitting signal ; in the signal processing step in step b) the at least one interference signal is subtracted from the interference-affected measurement signal ; and the resulting difference signal is output as the at least partly interference-suppressed output signal in step c), wherein by means of the electroconductive structure of the capacitive rain sensor : - on the one hand in a function as rain sensor a rain heaviness is measured and - on the other hand in a function as antenna the electromagnetic radio signal is transmitted, which as interference signal disrupts the measurement. - on the one hand in a function as rain sensor a rain heaviness is measured and - on the other hand in a function as antenna the electromagnetic radio signal is transmitted, which as interference signal disrupts the measurement.
An insect trap adapted to attract and collect insects using UV light, the insect trap comprising: a main body ; an insect filter disposed on the main body and allowing insects to pass therethrough; a motor disposed below the insect filter ; an air collector disposed at the lower side of the main body ; a suction fan disposed under the motor and rotated by the motor ; a plate-shaped UV LED installation unit disposed above the insect filter and provided with a UV LED module ; a buttress supporting the UV LED installation unit above the main body while separating the UV LED installation unit above the main body so as to allow insects to be suctioned into a space between the main body and the UV LED installation unit ; and an insect collector disposed under the main body and collecting insects; wherein the air collector having a conical shape, the diameter of which gradually decreases away from the suction fan , wherein the insect filter has a lattice shape including a plurality of insect passage openings selectively allowing insects to pass therethrough, characterized in that each of the insect passage openings has an area of 100 mm2 to 225 mm2, thus preventing insects having a larger volume than mosquitoes from passing through the insect passage openings . a main body ; an insect filter disposed on the main body and allowing insects to pass therethrough; a motor disposed below the insect filter ; an air collector disposed at the lower side of the main body ; a suction fan disposed under the motor and rotated by the motor ; a plate-shaped UV LED installation unit disposed above the insect filter and provided with a UV LED module ; a buttress supporting the UV LED installation unit above the main body while separating the UV LED installation unit above the main body so as to allow insects to be suctioned into a space between the main body and the UV LED installation unit ; and an insect collector disposed under the main body and collecting insects; wherein the air collector having a conical shape, the diameter of which gradually decreases away from the suction fan , wherein the insect filter has a lattice shape including a plurality of insect passage openings selectively allowing insects to pass therethrough, characterized in that each of the insect passage openings has an area of 100 mm2 to 225 mm2, thus preventing insects having a larger volume than mosquitoes from passing through the insect passage openings .
A method for obtaining a concentrated protein-rich phase from waste products of bioethanol production, characterised in that : a) a ground cereal is mashed in a cold mashing process before fermentation; b) the fermented mash is fed to a distillation process, which produces thick stillage as waste product; c) the thick stillage from b) is fed to a solid-liquid separation, wherein spent grains are produced as the solid and thin stillage is produced as the liquid phase, and the resulting solid is discharged from the method; d) the thin stillage is partially returned to the mashing process, with at least 0.15 kg thin stillage DM per kg of cereal DM being returned and the raw protein content of the thin stillage being increased by recirculating the thin stillage to the mashing process, wherein a pH value < 4.0 is maintained throughout the method; and e) at least part of the thin stillage is diluted with an aqueous process liquid and fed to a further separation process, wherein the aqueous phase separated in this further separation process, the clear phase, containing predominantly the dissolved dry matter, and wherein the concentrated protein-rich phase produced in this further separation process, the concentrate, containing predominantly protein-rich suspended dry matter. a) a ground cereal is mashed in a cold mashing process before fermentation; b) the fermented mash is fed to a distillation process, which produces thick stillage as waste product; c) the thick stillage from b) is fed to a solid-liquid separation, wherein spent grains are produced as the solid and thin stillage is produced as the liquid phase, and the resulting solid is discharged from the method; d) the thin stillage is partially returned to the mashing process, with at least 0.15 kg thin stillage DM per kg of cereal DM being returned and the raw protein content of the thin stillage being increased by recirculating the thin stillage to the mashing process, wherein a pH value < 4.0 is maintained throughout the method; and e) at least part of the thin stillage is diluted with an aqueous process liquid and fed to a further separation process, wherein the aqueous phase separated in this further separation process, the clear phase, containing predominantly the dissolved dry matter, and wherein the concentrated protein-rich phase produced in this further separation process, the concentrate, containing predominantly protein-rich suspended dry matter.
A method for authenticating an identity of a digital key, performed by a first terminal, the method comprising: sending (S103) a service instruction to a second terminal, which contains the digital key; receiving (S104) a service response message sent by the second terminal when the second terminal is in a preset operating state, wherein the service response message includes user identity authentication information; obtaining (S105) the user identity authentication information after verification performed on the service response message by using a first key succeeds, wherein the first key is a key pre-agreed on by the second terminal and the first terminal, the user identity authentication information is stored in a secure element of the second terminal, the user identity authentication information comprises a user identity authentication result, the user identity authentication result is generated by an identity authentication system of the second terminal before the second terminal enters the preset operating state, and the preset operating state is a state in which the identity authentication system of the second terminal cannot generate an identity authentication result; and verifying (S106) the user identity authentication information. sending (S103) a service instruction to a second terminal, which contains the digital key; receiving (S104) a service response message sent by the second terminal when the second terminal is in a preset operating state, wherein the service response message includes user identity authentication information; obtaining (S105) the user identity authentication information after verification performed on the service response message by using a first key succeeds, wherein the first key is a key pre-agreed on by the second terminal and the first terminal, the user identity authentication information is stored in a secure element of the second terminal, the user identity authentication information comprises a user identity authentication result, the user identity authentication result is generated by an identity authentication system of the second terminal before the second terminal enters the preset operating state, and the preset operating state is a state in which the identity authentication system of the second terminal cannot generate an identity authentication result; and verifying (S106) the user identity authentication information.
A heat exchanger for an internal combustion engine, comprising a first connection region for supplying a fluid to be cooled, wherein the fluid consists at least in parts of exhaust gas of the internal combustion engine, a second connection region for discharging the fluid, and an exchanger region arranged between the first and the second connection region with regards to a flow path of the fluid, wherein a coolant can flow around the exchanger region , wherein the heat exchanger comprises a plurality of disc elements which are connected to one another in a stacked manner and wherein a housing surrounding the disc elements is provided, characterised in that at least a part of the heat exchanger consists of ferritic steel, wherein the housing consists of the ferritic steel, wherein a further part of the heat exchanger consists of a further ferritic steel.
A motion manager (200; 600; 700; 800) comprising one or more processors configured to: arbitrate a plurality of action plans for driving support of a vehicle (1; 31; 41; 51) set by a driving support system of the vehicle (1; 31; 41; 51); calculate a motion request based on a result of arbitration; distribute the motion request to an actuator system of the vehicle (1; 31; 41; 51); predict at least one of a total weight of the vehicle (1; 31; 41; 51) and a position of a center of gravity of the vehicle (1; 31; 41; 51); and correct the motion request based on the at least one of the predicted total weight and the predicted position of the center of gravity such that an influence of the total weight and the position of the center of gravity on traveling of the vehicle (1; 31; 41; 51) is reduced. arbitrate a plurality of action plans for driving support of a vehicle (1; 31; 41; 51) set by a driving support system of the vehicle (1; 31; 41; 51); calculate a motion request based on a result of arbitration; distribute the motion request to an actuator system of the vehicle (1; 31; 41; 51); predict at least one of a total weight of the vehicle (1; 31; 41; 51) and a position of a center of gravity of the vehicle (1; 31; 41; 51); and correct the motion request based on the at least one of the predicted total weight and the predicted position of the center of gravity such that an influence of the total weight and the position of the center of gravity on traveling of the vehicle (1; 31; 41; 51) is reduced.
A curable composition, wherein the curable composition exists in an ordered microphase-separated state at 25°C and is comprised of : a) a block copolymer comprised of at least a first block and a second block, wherein the first block and the second block have different monomer compositions ; b) a first reactive component having a higher affinity for the first block of the block copolymer than for the second block of the block copolymer ; c) a second reactive component having a higher affinity for the second block of block copolymer than for the first block of the block copolymer ; wherein the first reactive component and the second reactive component, in the absence of the block copolymer, are not fully miscible with each other at 25°C. a) a block copolymer comprised of at least a first block and a second block, wherein the first block and the second block have different monomer compositions ; b) a first reactive component having a higher affinity for the first block of the block copolymer than for the second block of the block copolymer ; c) a second reactive component having a higher affinity for the second block of block copolymer than for the first block of the block copolymer ;
A ventilation apparatus comprising: a case having a flow hole defined therein; a flow guide positioned within the case , wherein the flow guide includes an inlet communicating with the flow hole and a guide surface inclined downwardly and outwardly; a swirler positioned in a region defined by the flow guide , wherein the swirler is rotated to discharge back a portion of air inflowed through the flow hole out of the case , and wherein the swirler has a plurality of blades ; a driving motor for rotating the swirler to form a vortex forming apparatus with the swirler ; a grill member covering the swirler at the outside of the case and providing an air flow path; and a filter detachably mounted on the grill member wherein the grill member includes grill ribs defining a suction passage for suctioning the air and a discharge passage for discharging the air, wherein the discharge passage is positioned outside the suction passage , and wherein the filter is configured to cover the suction passage , characterized by that the filter is disposed below the grill member . a case having a flow hole defined therein; a flow guide positioned within the case , wherein the flow guide includes an inlet communicating with the flow hole and a guide surface inclined downwardly and outwardly; a swirler positioned in a region defined by the flow guide , wherein the swirler is rotated to discharge back a portion of air inflowed through the flow hole out of the case , and wherein the swirler has a plurality of blades ; a driving motor for rotating the swirler to form a vortex forming apparatus with the swirler ; a grill member covering the swirler at the outside of the case and providing an air flow path; and a filter detachably mounted on the grill member wherein the grill member includes grill ribs defining a suction passage for suctioning the air and a discharge passage for discharging the air, wherein the discharge passage is positioned outside the suction passage , and wherein the filter is configured to cover the suction passage , characterized by that the filter is disposed below the grill member .
A method comprising: receiving image data at a receiver device , wherein the image data corresponds to a structured light image obtained by projecting a pattern of projected coded light onto an object or a scene, and generating the image data by capturing a reflection of the projected coded light with a receiver image sensor; processing the image data to generate depth information based on the pattern of projected coded light, wherein the depth information corresponds to a depth map; performing one or more filtering operations on the image data, to reduce or eliminate a presence of the pattern of projected coded light included in the image, wherein an output of the one or more filtering operations includes filtered image data; performing a comparison between the depth information and the filtered image data to identify one or more missing depth values in the depth information, wherein missing depth values are associated with regions of the image data where the pattern of projected coded light is not detected in the image data; and modifying the depth information by populating the missing depth values to be included in the depth map, to generate a modified depth map. receiving image data at a receiver device , wherein the image data corresponds to a structured light image obtained by projecting a pattern of projected coded light onto an object or a scene, and generating the image data by capturing a reflection of the projected coded light with a receiver image sensor; processing the image data to generate depth information based on the pattern of projected coded light, wherein the depth information corresponds to a depth map; performing one or more filtering operations on the image data, to reduce or eliminate a presence of the pattern of projected coded light included in the image, wherein an output of the one or more filtering operations includes filtered image data; performing a comparison between the depth information and the filtered image data to identify one or more missing depth values in the depth information, wherein missing depth values are associated with regions of the image data where the pattern of projected coded light is not detected in the image data; and modifying the depth information by populating the missing depth values to be included in the depth map, to generate a modified depth map.
An apparatus, comprising: a computational memory ; and an operating system page table stored in the computational memory , wherein the operating system page table includes: an indication of whether a respective page is encrypted; a respective key for each page that is encrypted; a virtual address corresponding to the respective page ; a physical address corresponding to the respective page ; and a marking of a type of the respective page ; and wherein the computational memory is configured to maintain the operating system page table . a computational memory ; and an operating system page table stored in the computational memory , wherein the operating system page table includes: an indication of whether a respective page is encrypted; a respective key for each page that is encrypted; a virtual address corresponding to the respective page ; a physical address corresponding to the respective page ; and a marking of a type of the respective page ; and an indication of whether a respective page is encrypted; a respective key for each page that is encrypted; a virtual address corresponding to the respective page ; a physical address corresponding to the respective page ; and a marking of a type of the respective page ; and wherein the computational memory is configured to maintain the operating system page table .
An image processing apparatus comprising: at least one memory configured to store instructions; and at least one processor configured to execute the instructions to: acquire (S11) a captured image obtained using an optical system , and information on an imaging condition corresponding to the captured image (S12); and perform deteriorating processing (S14) on the captured image based on an F-number of the optical system, the F-number being included in the information on the imaging condition, wherein a first deterioration amount in the deteriorating processing in a case where the F-number is a first F-number is smaller than a second deterioration amount in the deteriorating processing in a case where the F-number is a second F-number larger than the first F-number; wherein the first deterioration amount and the second deterioration amount are a first blur amount and a second blur amount, respectively, in performing the deteriorating processing on the captured image. at least one memory configured to store instructions; and at least one processor configured to execute the instructions to: acquire (S11) a captured image obtained using an optical system , and information on an imaging condition corresponding to the captured image (S12); and perform deteriorating processing (S14) on the captured image based on an F-number of the optical system, the F-number being included in the information on the imaging condition, wherein a first deterioration amount in the deteriorating processing in a case where the F-number is a first F-number is smaller than a second deterioration amount in the deteriorating processing in a case where the F-number is a second F-number larger than the first F-number; wherein acquire (S11) a captured image obtained using an optical system , and information on an imaging condition corresponding to the captured image (S12); and perform deteriorating processing (S14) on the captured image based on an F-number of the optical system, the F-number being included in the information on the imaging condition, wherein a first deterioration amount in the deteriorating processing in a case where the F-number is a first F-number is smaller than a second deterioration amount in the deteriorating processing in a case where the F-number is a second F-number larger than the first F-number; wherein the first deterioration amount and the second deterioration amount are a first blur amount and a second blur amount, respectively, in performing the deteriorating processing on the captured image.