mhurhangee/ep-ind-claims huggingface dataset:
A bicycle gear shift control system capable of avoiding frequent gear shifting, the system being installed on a bicycle having a derailleur, the system being adapted to control a gear shifting action of the derailleur, the system comprising: a power module; a microcomputer electrically connected to the power module and adapted to switch between an automatic gear shifting mode and a manual gear shifting mode; a gear shifting driver electrically connected to the microcomputer, substantially connected to the derailleur, and instructed by the microcomputer to drive the derailleur to perform gear shift control; and a manual shifting controller electrically connected to the microcomputer; wherein microcomputer has an automatic gear shifting logic whereby the microcomputer determines a timing of automatic gear shifting and performs gear shifting; characterized in that: the microcomputer further has a gear shifting delay logic, wherein the gear shifting delay logic involves delaying for a fifth time period from commencement of gear shifting when a cyclist executes an instruction of manual gear shifting with the manual shifting controller in the automatic gear shifting mode, wherein, during the fifth time period, the microcomputer rules out all other determinations of automatic gear shifting and merely accepts an instruction of manual gear shifting performed by the cyclist with the manual shifting controller, wherein the automatic gear shifting mode resumes as soon as the fifth time period ends. a power module; a microcomputer electrically connected to the power module and adapted to switch between an automatic gear shifting mode and a manual gear shifting mode; a gear shifting driver electrically connected to the microcomputer, substantially connected to the derailleur, and instructed by the microcomputer to drive the derailleur to perform gear shift control; and a manual shifting controller electrically connected to the microcomputer; wherein microcomputer has an automatic gear shifting logic whereby the microcomputer determines a timing of automatic gear shifting and performs gear shifting; the microcomputer further has a gear shifting delay logic, wherein the gear shifting delay logic involves delaying for a fifth time period from commencement of gear shifting when a cyclist executes an instruction of manual gear shifting with the manual shifting controller in the automatic gear shifting mode, wherein, during the fifth time period, the microcomputer rules out all other determinations of automatic gear shifting and merely accepts an instruction of manual gear shifting performed by the cyclist with the manual shifting controller, wherein the automatic gear shifting mode resumes as soon as the fifth time period ends.
An agricultural harvesting machine, comprising: a feederhouse; a header with draper belts (202, 204) configured to transport agricultural material on left and right sides of the header towards a center section of the header and to the feederhouse of the agricultural harvesting machine; one or more motors (214, 216) configured to drive the draper belts (202, 204); and a draper belt control system configured to generate control signals for the one or more motors (214, 216) to control the operating speed of the draper belts (202, 204); wherein the draper belt control system is configured to determine a distribution of crop across the header of the agricultural harvesting machine and, based on the distribution of crop, generate the control signal for the one or more motors (214, 216), characterized in that the draper belt control system is configured to determine the distribution of crop located in a lead distance in front of the header across the header and, upon determining that crop is distributed on only one side of header, to generate control signals to reduce the operating speed of the draper belts (202, 204). a feederhouse; a header with draper belts (202, 204) configured to transport agricultural material on left and right sides of the header towards a center section of the header and to the feederhouse of the agricultural harvesting machine; one or more motors (214, 216) configured to drive the draper belts (202, 204); and a draper belt control system configured to generate control signals for the one or more motors (214, 216) to control the operating speed of the draper belts (202, 204); wherein the draper belt control system is configured to determine a distribution of crop across the header of the agricultural harvesting machine and, based on the distribution of crop, generate the control signal for the one or more motors (214, 216), characterized in that the draper belt control system is configured to determine the distribution of crop located in a lead distance in front of the header across the header and, upon determining that crop is distributed on only one side of header, to generate control signals to reduce the operating speed of the draper belts (202, 204).
Aircraft landing gear comprising a stationary element and at least one movable element (4, 6, 7) which can move relative to the stationary element between a first position and a second position, and detection means arranged to detect when the movable element is in at least one of its positions, characterised in that the detection means comprise at least one threadlike and flexible shape sensor, connected to an electronic processing unit arranged to deduce the position of the movable element of the shape of the shape sensor, the shape sensor comprising a first section (11.1) rigidly connected to the stationary element and a second section (11.3, 11.5, 11.7) rigidly connected to the movable element so that the first section and the second section are immobile with respect to the stationary element and the movable element respectively, and are movable relative to one another.
A method for providing a Lactobacillus delbrueckii subsp. bulgaricus strain which has a texturing property, measured in Pa using the assay for determination of viscosity, of not less than 25 and which produces less acid when present in a fermented dairy product compared to a mother strain, the method comprises treating a mother strain of Lactobacillus delbrueckii subsp. bulgaricus with a mutagen, preferably EMS, wherein the mother strain is selected among the strains that have the following properties: a) high texturing property; and b) high post-acidification property; and wherein the mother strain is selected from the group consisting of: CHCC3984 deposited as DSM19251; CHCC3606 deposited as DSM18142 and CHCC5713 deposited as DSM18143; and mutants of any of these which have substantially the same post-acidifying and texturing properties. a) high texturing property; and b) high post-acidification property;
A method for controlling an autonomous vehicle, comprising utilizing the sensor group of said vehicle to acquire data related to said vehicle, wherein said data includes the speed of said vehicle, the speed of another object ahead of said vehicle, and the distance between said vehicle and another object, determining the crash probability between said vehicle and another object according to the data related to said vehicle, characterized by calculating the total magnitude of value according to said crash probability on the basis of the prospect theory, wherein said total magnitude of value indicates the balance between the value of crash risk reduction and the value of user comfort loss, and calculating the brake force according to said total magnitude of value.
A method of allocating tyre pressure monitoring units of a tyre pressure monitoring system of a vehicle to the various positions at which a respective wheel is mounted on the vehicle, wherein the tyre pressure monitoring units each contain a pressure sensor, a receiver and a transmitter, the transmitter sends data obtained from measurements of the pressure sensor together with a characteristic identifier of the tyre pressure monitoring unit, the tyre pressure monitoring system contains a central unit which receives transmissions from the tyre pressure monitoring units and, by evaluating reception levels, assigns the characteristic identifiers of the various tyre pressure monitoring units to one of the positions at which a respective wheel is mounted on the vehicle, characterised in that the transmissions from the tyre pressure monitoring units are also received by a device which is movable relative to the vehicle, preferably a radio key or a smartphone, the device, which is movable relative to the vehicle, transmits the reception levels with which the characteristic identifiers of tyre pressure monitoring units have been received or data obtained by evaluating the reception levels to the central unit, and the central unit also evaluates information received from the device moving relative to the vehicle in order to assign the characteristic identifier of the various tyre pressure monitoring units. the tyre pressure monitoring units each contain a pressure sensor, a receiver and a transmitter, the transmitter sends data obtained from measurements of the pressure sensor together with a characteristic identifier of the tyre pressure monitoring unit, the tyre pressure monitoring system contains a central unit which receives transmissions from the tyre pressure monitoring units and, by evaluating reception levels, assigns the characteristic identifiers of the various tyre pressure monitoring units to one of the positions at which a respective wheel is mounted on the vehicle, characterised in that the transmissions from the tyre pressure monitoring units are also received by a device which is movable relative to the vehicle, preferably a radio key or a smartphone, the device, which is movable relative to the vehicle, transmits the reception levels with which the characteristic identifiers of tyre pressure monitoring units have been received or data obtained by evaluating the reception levels to the central unit, and the central unit also evaluates information received from the device moving relative to the vehicle in order to assign the characteristic identifier of the various tyre pressure monitoring units.
An ultrasound probe (10;200;700;1112) including a distal end and a proximal end, wherein distal refers to an end of the ultrasound probe (10;200;700;1112) that is closest to a subject or object to be imaged during use and proximal refers to an end of the ultrasound probe (10;200;700;1112) that is farther from the subject or object to be imaged during use, wherein the ultrasound probe (10;200;700;1112) comprising: a transducer assembly (30;230;730) at a distal end of the ultrasound probe (10;200;700;1112), the transducer assembly (30;230;730) comprising: a lens (36;236;736); a transducer stack coupled to the lens (36;236;736); and a backing subassembly (14;214;714) coupled to the proximal side of the transducer stack opposite the lens (36;236;736); a printed circuit assembly (18;218;718) spaced from and coupled to the transducer assembly (30;230;730); a housing (22;222;722) enclosing the PCA (18;218;718) and at least a portion of the transducer assembly (30;230;730), wherein the housing (22;222;722) defines an opening (225;725) at the distal end of the ultrasound probe (10;200;700;1112) to expose at least a portion of the lens (36;236;736) through the opening (225;725); and a thermally conductive compliant component (16;216;716) disposed between the transducer assembly (30;230;730) and the PCA (18;218;718) and coupling the transducer assembly (30;230;730) to the PCA (18;218;718), wherein the thermally conductive compliant component (16;216;716) is configured to bias the transducer assembly (30;230;730) away from the PCA (18;218;718) towards the opening (225;725) in the housing (22;222;722) and to conduct heat away from the distal end of the ultrasound probe (10;200;700;1112). a transducer assembly (30;230;730) at a distal end of the ultrasound probe (10;200;700;1112), the transducer assembly (30;230;730) comprising: a lens (36;236;736); a transducer stack coupled to the lens (36;236;736); and a backing subassembly (14;214;714) coupled to the proximal side of the transducer stack opposite the lens (36;236;736); a lens (36;236;736); a transducer stack coupled to the lens (36;236;736); and a backing subassembly (14;214;714) coupled to the proximal side of the transducer stack opposite the lens (36;236;736); a printed circuit assembly (18;218;718) spaced from and coupled to the transducer assembly (30;230;730); a housing (22;222;722) enclosing the PCA (18;218;718) and at least a portion of the transducer assembly (30;230;730), wherein the housing (22;222;722) defines an opening (225;725) at the distal end of the ultrasound probe (10;200;700;1112) to expose at least a portion of the lens (36;236;736) through the opening (225;725); and a thermally conductive compliant component (16;216;716) disposed between the transducer assembly (30;230;730) and the PCA (18;218;718) and coupling the transducer assembly (30;230;730) to the PCA (18;218;718), wherein the thermally conductive compliant component (16;216;716) is configured to bias the transducer assembly (30;230;730) away from the PCA (18;218;718) towards the opening (225;725) in the housing (22;222;722) and to conduct heat away from the distal end of the ultrasound probe (10;200;700;1112).
A floor processing device that automatically moves within an environment, with a driving attachment for moving the floor processing device in the environment, a floor processing unit (3, 4, 5) for executing a floor processing operation, an obstacle detection unit (6, 7) for detecting obstacles in the environment, a control unit for automatically navigating and self-localizing the floor processing device and a detection unit (9, 10, 11, 12, 16) for detecting device parameters and/or environment parameters, wherein the control unit is set up to determine an error of the floor processing device based upon the detected parameters that prevents the floor processing device from moving and/or the floor processing device from processing a surface to be processed in such a way that the floor processing device is unable to automatically extricate itself from the error situation, characterized in that, for purposes of a self-learning error avoidance, the control unit is set up to analyze the parameters detected by means of the detection unit (9, 10, 11, 12, 16) with respect to recurring patterns, which are characterized by a repeatedly encountered combination of an error and at least one chronologically preceding environment and/or device parameter.
A switch comprising: a normally-closed fixed first contact unit; a second contact unit; a pressing member; and a movable contact that is attached to the pressing member and is configured to slide on the first contact unit and the second contact unit, wherein a conductive region and an insulating region are formed in a sliding surface, on which the movable contact is configured to slide, in the first contact unit, the conductive region and the insulating region being arranged in a pressing direction (z) of the pressing member in the said order, a conductive region and an insulating region are formed in a sliding surface, on which the movable contact is configured to slide, in the second contact unit, the conductive region and the insulating region being arranged in the pressing direction (z) in the said order, and the movable contact is configured to slide from the conductive regions (8a, 9a) to the insulating regions (8b, 9b) to switch from a closed state in which conduction between the first contact unit and the second contact unit is established, to an opened state in which conduction between the first contact unit and the second contact unit is cut off, wherein the first contact unit differs from the second contact unit in a location of a boundary between the conductive region and the insulating region in the pressing direction (z). a normally-closed fixed first contact unit; a second contact unit; a pressing member; and a movable contact that is attached to the pressing member and is configured to slide on the first contact unit and the second contact unit, wherein a conductive region and an insulating region are formed in a sliding surface, on which the movable contact is configured to slide, in the first contact unit, the conductive region and the insulating region being arranged in a pressing direction (z) of the pressing member in the said order, a conductive region and an insulating region are formed in a sliding surface, on which the movable contact is configured to slide, in the second contact unit, the conductive region and the insulating region being arranged in the pressing direction (z) in the said order, and the movable contact is configured to slide from the conductive regions (8a, 9a) to the insulating regions (8b, 9b) to switch from a closed state in which conduction between the first contact unit and the second contact unit is established, to an opened state in which conduction between the first contact unit and the second contact unit is cut off, wherein the first contact unit differs from the second contact unit in a location of a boundary between the conductive region and the insulating region in the pressing direction (z).
A sidelink control information sending method, comprising: sending, by a first terminal apparatus, first-stage sidelink control information SCI to a second terminal apparatus, characterised in that a cyclic redundancy check bit corresponding to the first SCI is scrambled by using scrambling information, and the scrambling information comprises a first identifier or a second identifier, wherein the first identifier is used to indicate that the first terminal apparatus is not to send second-stage SCI to the second terminal apparatus, and the second identifier is used to indicate that the first terminal apparatus is to send the second-stage SCI to the second terminal apparatus; and if the scrambling information comprises the first identifier, sending, by the first terminal apparatus, a physical sidelink shared channel PSSCH to the second terminal apparatus based on the first-stage SCI; if the scrambling information comprises the second identifier, sending, by the first terminal apparatus, a physical sidelink shared channel PSSCH to the second terminal apparatus based on the first-stage SCI and the second-stage SCI. sending, by a first terminal apparatus, first-stage sidelink control information SCI to a second terminal apparatus, characterised in that a cyclic redundancy check bit corresponding to the first SCI is scrambled by using scrambling information, and the scrambling information comprises a first identifier or a second identifier, wherein the first identifier is used to indicate that the first terminal apparatus is not to send second-stage SCI to the second terminal apparatus, and the second identifier is used to indicate that the first terminal apparatus is to send the second-stage SCI to the second terminal apparatus; and if the scrambling information comprises the first identifier, sending, by the first terminal apparatus, a physical sidelink shared channel PSSCH to the second terminal apparatus based on the first-stage SCI; if the scrambling information comprises the second identifier, sending, by the first terminal apparatus, a physical sidelink shared channel PSSCH to the second terminal apparatus based on the first-stage SCI and the second-stage SCI.
A compound according to Formula I wherein R 1 is selected from aryl, substituted aryl, heteroaryl, and substituted heteroaryl; R 2 is selected from hydrogen, alkyl, substituted alkyl, aryl, and substituted aryl; R 3 is selected from alkyl, cycloalkyl, substituted cycloalkyl, aryl, substituted aryl, and -C 1 -C 3 -alkyl-R 5, wherein R 5 is selected from cycloalkyl, substituted cycloalkyl, aryl, substituted aryl; R 4 is selected from hydrogen, alkyl, substituted alkyl, aryl, substituted aryl, heteroaryl, and substituted heteroaryl, and -NH-CO-R 6, wherein R 6 is selected from aryl and substituted aryl, heteroaryl, and substituted heteroaryl; or a pharmaceutical acceptable salt thereof, for use in the prophylaxis, prevention and/or treatment of a skin disease. wherein R 1 is selected from aryl, substituted aryl, heteroaryl, and substituted heteroaryl; R 2 is selected from hydrogen, alkyl, substituted alkyl, aryl, and substituted aryl; R 3 is selected from alkyl, cycloalkyl, substituted cycloalkyl, aryl, substituted aryl, and -C 1 -C 3 -alkyl-R 5, wherein R 5 is selected from cycloalkyl, substituted cycloalkyl, aryl, substituted aryl; R 4 is selected from hydrogen, alkyl, substituted alkyl, aryl, substituted aryl, heteroaryl, and substituted heteroaryl, and -NH-CO-R 6, wherein R 6 is selected from aryl and substituted aryl, heteroaryl, and substituted heteroaryl;
A measuring system with a field device (105, 106, 108) for measuring a process variable, and a server configured for remote maintenance of the field device and for transferring information, which define a later time for transferring the field device from power-saving mode to transmit/receive mode for conducting a remote maintenance, to the field device, the field device (105, 106, 108) comprising: a transmit/receive unit (107, 112) for transmitting measurement data to a server and for receiving data from the server; and a control unit (109, 110) for transferring the field device (105, 106, 108) from power-saving mode, in which the field device (105, 106, 108) cannot be accessed, to transmit/receive mode, in which the field device (105, 106, 108) can be accessed, and vice versa; wherein the field device (105, 106, 108) is configured to activate time- or event-driven a transmitting of measured data, for which the field device (105, 106, 108) changes from the power-saving mode to the transmit/receive mode, wherein the control unit (109, 110) is configured to receive the information from the server, - while the field device (105, 106, 108) is in the transmit/receive mode, and - after having established a connection of to the field device (105, 106, 108) the server. a transmit/receive unit (107, 112) for transmitting measurement data to a server and for receiving data from the server; and a control unit (109, 110) for transferring the field device (105, 106, 108) from power-saving mode, in which the field device (105, 106, 108) cannot be accessed, to transmit/receive mode, in which the field device (105, 106, 108) can be accessed, and vice versa; wherein the field device (105, 106, 108) is configured to activate time- or event-driven a transmitting of measured data, for which the field device (105, 106, 108) changes from the power-saving mode to the transmit/receive mode, wherein the control unit (109, 110) is configured to receive the information from the server, - while the field device (105, 106, 108) is in the transmit/receive mode, and - after having established a connection of to the field device (105, 106, 108) the server. - while the field device (105, 106, 108) is in the transmit/receive mode, and - after having established a connection of to the field device (105, 106, 108) the server.