mhurhangee/patent-ind-claim-en huggingface dataset:
A self-centring system for receptacles in pull out cabinets, the self-centering system comprises a frame structure , a cabinet body with a first and a second lateral side , the frame structure comprises first and second brackets , first and second rails , at least one receptacle , wherein the first bracket is fixedly attached to the first lateral side of the cabinet body and the second bracket is fixedly attached to the second lateral side of the cabinet body , wherein the first and second rails are slidably attached by means of sliding means on to the first and second brackets , such that the first and second rails are slidable in and out of the cabinet body , wherein the receptacle is attached to the first and second rails , wherein the self-centring system further comprises a first and second fastening means each comprising a main portion from which hook means extend and which hook means of the first fastening means are arranged to at least partially enclose a first portion of the receptacle and to grip a connecting part of the first rail , and which hook means of the second fastening means are arranged to at least partially enclose a second portion of the receptacle and to grip a connecting part of the second rail , permitting the receptacle to attach to the first and the second rails and consequently to be self-centring between the first and second lateral sides of the cabinet body , wherein the first and the second fastening means are each provided with a main portion , a pin and first parts of the hook means , wherein the pin and first parts of the hook means extend in the same direction and are arranged on and substantially perpendicular to the main portion , wherein the pin of the first fastening means is arranged to engage with a first hole provided in the receptacle and the pin of the second fastening means is arranged to engage with a second hole provided in the receptacle , characterized in that the first and second holes of the receptacle are oblong, extend in a diagonal manner in between the first and second lateral sides of the cabinet body and mirror each other in an imaginary centre line of the receptacle in a lateral direction, and wherein an overall length of the first and second holes of the receptacle is long enough in permitting the pin of the first and second fastening means and thus the receptacle to travel an adjustment distance in a transverse direction.
A recombinant nucleic acid molecule comprising: (a) a polynucleotide sequence having at least 90% identity to the polynucleotide sequence of SEQ ID NO:1 or SEQ ID NO:2, or (b) a nucleic acid sequence which hybridizes with the nucleic acid sequence SEQ ID NO:1 or SEQ ID NO:2 under stringent conditions, or (c) functionally equivalent fragments of the sequences under (a) or (b), wherein said fragments function as promoters. (a) a polynucleotide sequence having at least 90% identity to the polynucleotide sequence of SEQ ID NO:1 or SEQ ID NO:2, or (b) a nucleic acid sequence which hybridizes with the nucleic acid sequence SEQ ID NO:1 or SEQ ID NO:2 under stringent conditions, or (c) functionally equivalent fragments of the sequences under (a) or (b), wherein said fragments function as promoters.
A lithium cobalt-based oxide cathode active material having: - a primary phase comprising Li, Co, and O, and - a secondary phase comprising LiNaSO 4 , wherein the content of said LiNaSO 4 secondary phase in said powder is of at least 0.4wt.% and inferior or equal to 1.1wt.% with respect to a total weight of the cathode active material powder, said cathode active material powder being characterized in that it comprises a S/Na atomic ratio superior or equal to 0.80 and inferior or equal to 1.20. - a primary phase comprising Li, Co, and O, and - a secondary phase comprising LiNaSO 4 ,
Sound insulation device for a track system , comprising a sound insulation region and a fastening region for fastening to the track system , characterized in that the sound insulation region and the fastening region are formed on a sound insulation element made of rubber material, and in that the fastening region comprises a fastening fitting region , which is matched in shape to a side end contour of a rail support arrangement supporting rails of a track system , and a plurality of fastening member passage openings for fastening the sound insulation element to the rail support arrangement .
A method for determining relative motion between a time-of-flight camera and an object in a scene sensed by the time-of-flight camera, wherein the object emits a modulated light signal, the method comprising: receiving at least two sets of raw images of the scene from the time-of-flight camera, wherein the at least two sets of raw images each comprise at least one raw image, wherein the raw images are based on correlations of a modulated reference signal and measurement signals of the time-of-flight camera, and wherein the measurement signals are based on the modulated light signal emitted by the object; determining for each set of raw images a value indicating a respective phase difference between the modulated light signal and the modulated reference signal based on the respective set of raw images; controlling the time-of-flight camera to synchronize a modulation frequency of the modulated reference signal to a modulation frequency of the modulated light signal emitted by the object; modifying the values indicating the phase differences based on a synchronization error of the modulation frequency of the modulated reference signal to obtain compensated values; determining information about relative motion between the time-of-flight camera and the object based on the compensated values; and outputting the information about relative motion between the time-of-flight camera and the object. receiving at least two sets of raw images of the scene from the time-of-flight camera, wherein the at least two sets of raw images each comprise at least one raw image, wherein the raw images are based on correlations of a modulated reference signal and measurement signals of the time-of-flight camera, and wherein the measurement signals are based on the modulated light signal emitted by the object; determining for each set of raw images a value indicating a respective phase difference between the modulated light signal and the modulated reference signal based on the respective set of raw images; controlling the time-of-flight camera to synchronize a modulation frequency of the modulated reference signal to a modulation frequency of the modulated light signal emitted by the object; modifying the values indicating the phase differences based on a synchronization error of the modulation frequency of the modulated reference signal to obtain compensated values; determining information about relative motion between the time-of-flight camera and the object based on the compensated values; and outputting the information about relative motion between the time-of-flight camera and the object.
A wrapping device for wrapping agricultural round bales with a wrapping material , comprising - a bale holder for receiving the round bale , - at least one wrapping arm , as well as - at least one magazine of material to hold the wrapping material , wherein, when a baled round bale has been placed in a wrapping position in which it is received by means of the bale holder , by means of at least one electric drive , the wrapping arm and the round bale can be moved relative to each other in a manner such that the round bale can be wrapped by means of the wrapping material , wherein the drive cooperates directly or indirectly with a sensor device , wherein the sensor device is configured to at least periodically acquire data pertaining to at least one actual operational state of the drive , wherein the sensor device is connected to a control device in a data-transmitting manner so that the acquired data is transferred to the control device , wherein the control device is configured to process the acquired data, characterized in that the sensor device is configured to detect a power consumption of the drive and/or a drive torque of the drive . - a bale holder for receiving the round bale , - at least one wrapping arm , as well as - at least one magazine of material to hold the wrapping material , wherein, when a baled round bale has been placed in a wrapping position in which it is received by means of the bale holder , by means of at least one electric drive , the wrapping arm and the round bale can be moved relative to each other in a manner such that the round bale can be wrapped by means of the wrapping material , wherein the drive cooperates directly or indirectly with a sensor device , wherein the sensor device is configured to at least periodically acquire data pertaining to at least one actual operational state of the drive , wherein the sensor device is connected to a control device in a data-transmitting manner so that the acquired data is transferred to the control device , wherein the control device is configured to process the acquired data, characterized in that the sensor device is configured to detect a power consumption of the drive and/or a drive torque of the drive . wherein, when a baled round bale has been placed in a wrapping position in which it is received by means of the bale holder , by means of at least one electric drive , the wrapping arm and the round bale can be moved relative to each other in a manner such that the round bale can be wrapped by means of the wrapping material , wherein the drive cooperates directly or indirectly with a sensor device , wherein the sensor device is configured to at least periodically acquire data pertaining to at least one actual operational state of the drive , wherein the sensor device is connected to a control device in a data-transmitting manner so that the acquired data is transferred to the control device , wherein the control device is configured to process the acquired data, characterized in that the sensor device is configured to detect a power consumption of the drive and/or a drive torque of the drive .
A self-propelled agricultural working machine having at least one working unit (3 - 8), in particular a propulsion unit , and having a driver assistance system for generating control actions within the working machine , wherein a sensor system for generating pieces of environmental information (11 - 14) is provided, wherein the driver assistance system generates the control actions based on the pieces of environmental information (11 - 14), wherein the sensor system has a first sensor which captures a first piece of sensor information (16 - 19) based on a first physical property of an environmental object in the environment of the working machine , characterized in that the sensor system has at least one further sensor which captures a further piece of sensor information (23 - 26) based on a further physical property of the environmental object , and in that the driver assistance system generates a piece of environmental information (11 - 14) regarding the environmental object from the first piece of sensor information (16 - 19) and from the further piece of sensor information (23 - 26), and wherein the driver assistance system assigns an object category from the object categories "living" and "not living" to the environmental object based on the pieces of environmental information (11 - 14).
A flexible shock-absorbing parts , which connect with an upper shaft defining a first axis and a lower shaft defining a second axis , wherein the upper shaft connects and drives a first gear of a first machine and the lower shaft connects and drives a gearing wheel of a second machine which includes a wheel base and a wheel , the flexible shock-absorbing parts being characterized by their arrangement between the first gear and the second machine and tight attachment to them; the flexible shock-absorbing parts being arranged in radial style using the first axis as a reference point; the first gear being configured to mesh with a second gear connected to one end of a coupling provided with the other end connected to a motor ; the coupling being configured to enable the motor and the second gear to rotate coaxially to allow the second gear to transmit a power supplied from the motor to the first gear thereby driving the upper shaft to rotate around the first axis and link a rotation of the lower shaft around the second axis , wherein a torque transmitted to the upper shaft is reduced by the flexible shock-absorbing parts during rotation so that the second gear and the motor are protected; wherein, while in an initial state, the upper shaft and the lower shaft are rotated in a coaxial manner and projection points of the first axis of the upper shaft and the second axis of the lower shaft are the same point on a first plane, the first plane being composed of the X-axis and the Y-axis in the Cartesian coordinate system. their arrangement between the first gear and the second machine and tight attachment to them; the flexible shock-absorbing parts being arranged in radial style using the first axis as a reference point; the first gear being configured to mesh with a second gear connected to one end of a coupling provided with the other end connected to a motor ; the coupling being configured to enable the motor and the second gear to rotate coaxially to allow the second gear to transmit a power supplied from the motor to the first gear thereby driving the upper shaft to rotate around the first axis and link a rotation of the lower shaft around the second axis , wherein a torque transmitted to the upper shaft is reduced by the flexible shock-absorbing parts during rotation so that the second gear and the motor are protected; wherein, while in an initial state, the upper shaft and the lower shaft are rotated in a coaxial manner and projection points of the first axis of the upper shaft and the second axis of the lower shaft are the same point on a first plane, the first plane being composed of the X-axis and the Y-axis in the Cartesian coordinate system.
A filament for a fused deposition modeling-based three-dimensional printer, the filament being made of a resin composition containing: inorganic fibers having an average fiber length of 1 μm to 300 μm and an average aspect ratio of 3 to 200; and a thermoplastic resin, wherein the thermoplastic resin is at least one selected from the group consisting of polyacetal resin, aliphatic polyamide resins, semi-aromatic polyamide resins, polyphenylene sulfide resin, polyether sulfone resin, liquid crystal polyester resin, aromatic polyether ketone resins, polyamide-imide resin, and thermoplastic polyimide resin and wherein the type of the inorganic fibers is potassium titanate, and wherein the average fiber length and the average aspect ratio are determined according to the description. wherein the thermoplastic resin is at least one selected from the group consisting of polyacetal resin, aliphatic polyamide resins, semi-aromatic polyamide resins, polyphenylene sulfide resin, polyether sulfone resin, liquid crystal polyester resin, aromatic polyether ketone resins, polyamide-imide resin, and thermoplastic polyimide resin and wherein the type of the inorganic fibers is potassium titanate, and wherein the average fiber length and the average aspect ratio are determined according to the description.
A travel route generating device configured to generate a travel route for a work vehicle that works while traveling in a work field, the travel route generating device comprising: a cell manager configured to manage a plurality of cells obtained by generating meshes in a topographical map of the work field at a predetermined interval; a travel weighting allocator configured to allocate to one of the cells, as weights given to travels, a weight given to left-turn travel, a weight given to straight travel, and a weight given to right-turn travel, the weights each indicating a travel effect degree in each cell passing direction upon travel from the cell to one of cells adjacent thereto; a cell passing route determiner configured to determine a cell passing route of passing the cell in accordance with the weight given to the left-turn travel, the weight given to the straight travel, and the weight given to the right-turn travel allocated to the cell; and a travel route generator configured to generate the travel route by connecting the cell passing routes sequentially determined by the cell passing route determiner ; characterized by further comprising a weighting changer configured to change the weights given to travels which are allocated to a cell influenced by passage of the cell. a cell manager configured to manage a plurality of cells obtained by generating meshes in a topographical map of the work field at a predetermined interval; a travel weighting allocator configured to allocate to one of the cells, as weights given to travels, a weight given to left-turn travel, a weight given to straight travel, and a weight given to right-turn travel, the weights each indicating a travel effect degree in each cell passing direction upon travel from the cell to one of cells adjacent thereto; a cell passing route determiner configured to determine a cell passing route of passing the cell in accordance with the weight given to the left-turn travel, the weight given to the straight travel, and the weight given to the right-turn travel allocated to the cell; and a travel route generator configured to generate the travel route by connecting the cell passing routes sequentially determined by the cell passing route determiner ; characterized by further comprising a weighting changer configured to change the weights given to travels which are allocated to a cell influenced by passage of the cell.
A pulse photometer comprising: a first variation acquirer which is configured to acquire a first variation (Δ1) corresponding to a light attenuation variation (ΔA1) of a first light beam due to pulsation of blood in a subject , based on a first intensity signal (I1) corresponding to an intensity of the first light beam that is transmitted through or reflected from a body of the subject, and that has a first wavelength (λ1); a second variation acquirer which is configured to acquire a second variation (Δ2) set as the sum of a first offset (k1) and a light attenuation variation (ΔA2) of a second light beam due to the pulsation of the blood in the subject, based on a second intensity signal corresponding to an intensity of the second light beam that is transmitted through or reflected from the body of the subject, and that has a second wavelength (λ2); and a concentration calculator which is configured to calculate a blood light absorber concentration, based on the first variation and the second variation, wherein the first offset corresponds to a proportionality constant between the inverse of the light attenuation variation of the first light beam and the difference between the concentration with a transcutaneous measurement and the concentration with an invasive measurement performed to obtain arterial oxygen saturation. a first variation acquirer which is configured to acquire a first variation (Δ1) corresponding to a light attenuation variation (ΔA1) of a first light beam due to pulsation of blood in a subject , based on a first intensity signal (I1) corresponding to an intensity of the first light beam that is transmitted through or reflected from a body of the subject, and that has a first wavelength (λ1); a second variation acquirer which is configured to acquire a second variation (Δ2) set as the sum of a first offset (k1) and a light attenuation variation (ΔA2) of a second light beam due to the pulsation of the blood in the subject, based on a second intensity signal corresponding to an intensity of the second light beam that is transmitted through or reflected from the body of the subject, and that has a second wavelength (λ2); and a concentration calculator which is configured to calculate a blood light absorber concentration, based on the first variation and the second variation, wherein the first offset corresponds to a proportionality constant between the inverse of the light attenuation variation of the first light beam and the difference between the concentration with a transcutaneous measurement and the concentration with an invasive measurement performed to obtain arterial oxygen saturation.
A cooperative actuator system for active flow control along a surface , comprising: - a plurality of fluidic actuators realized to provide pulsed ejections from openings in the surface ; - a control unit ; and - a data unit ; wherein the plurality of actuators are configured to be distributed along the surface in at least a first group and a second group downstream of the first group, wherein the control unit is configured to control the actuators of the first group so that they form a first flow structure along the surface , wherein the data unit is configured to provide data of the first flow structure, wherein the data unit receives the data of the first flow structure from a sensor unit monitoring the first flow structure, wherein the sensor unit is configured to detect a pressure recovery and/or a resistance reduction, and wherein the control unit is further configured to control the actuators of the second group based on the data of the first flow structure, so that the actuators of the second group cooperatively interact with the first flow structure to form a second flow structure along the surface . - a plurality of fluidic actuators realized to provide pulsed ejections from openings in the surface ; - a control unit ; and - a data unit ; wherein the control unit is configured to control the actuators of the first group so that they form a first flow structure along the surface , wherein the data unit is configured to provide data of the first flow structure, wherein the data unit receives the data of the first flow structure from a sensor unit monitoring the first flow structure, wherein the sensor unit is configured to detect a pressure recovery and/or a resistance reduction, and wherein the control unit is further configured to control the actuators of the second group based on the data of the first flow structure, so that the actuators of the second group cooperatively interact with the first flow structure to form a second flow structure along the surface .