mhurhangee/ep-ind-claims huggingface dataset:
A method of monitoring the collection of plant material, comprising the following steps: on a worksite, collecting plant location and attribute data suited for a later identification of the respective plant material, before and/or during and/or after harvesting the plant material on the worksite; providing the plant location and the attribute data on a collecting vehicle adapted to collect the harvested plant material; moving the collecting vehicle to the harvested plant material on the worksite, based on the plant location data; collecting the harvested plant material in a loading space of the collecting vehicle; characterized by sensing attribute data of the harvested plant material with at least one sensor, within a chronological context with the collecting step, before or during the collecting; comparing the sensed attribute data with the plant attribute data and generating an output dependent on the result of the comparison, and presenting the result of the comparison to an operator of the collecting vehicle via a user interface including displaying an error message if the comparison reveals that the stored plant attribute data and the sensed plant attribute data do not match. on a worksite, collecting plant location and attribute data suited for a later identification of the respective plant material, before and/or during and/or after harvesting the plant material on the worksite; providing the plant location and the attribute data on a collecting vehicle adapted to collect the harvested plant material; moving the collecting vehicle to the harvested plant material on the worksite, based on the plant location data; collecting the harvested plant material in a loading space of the collecting vehicle; characterized by sensing attribute data of the harvested plant material with at least one sensor, within a chronological context with the collecting step, before or during the collecting; comparing the sensed attribute data with the plant attribute data and generating an output dependent on the result of the comparison, and presenting the result of the comparison to an operator of the collecting vehicle via a user interface including displaying an error message if the comparison reveals that the stored plant attribute data and the sensed plant attribute data do not match.
A MEMS device (10; 30; 40; 50; 60) comprising: a substrate; a tilting plate (18; 46; 56) arranged at an interval from the substrate; a support member (14a, 14b; 42; 52a, 52b) fixed to the substrate; and a support beam (16a, 16b; 44a, 44b; 54a, 54b) having a first end connected to the support member (14a, 14b; 42; 52a, 52b) and a second end connected to the tilting plate (18; 46; 56), and tiltably supporting the tilting plate (18; 46; 56) around a tilting axis, wherein one of the substrate and the tilting plate (18; 46; 56) is formed with a protruding portion (26a, 26b, 27a, 27b, 28a, 28b, 29a, 29b, 32a, 32b, 34a, 34b; 62a, 62b), at least a part of the protruding portion (26a, 26b, 27a, 27b, 28a, 28b, 29a, 29b, 32a, 32b, 34a, 34b; 62a, 62b) is included in a plane perpendicular to the tilting axis, and including a connecting portion (24a, 24b; 48a, 48b; 58a, 58b) of the tilting plate (18; 46; 56) and the support beam (16a, 16b; 44a, 44b; 54a, 54b), with respect to a direction along the tilting axis, a side end portion of the tilting plate (18; 46; 56) extends beyond the connecting portion (24a, 24b; 48a, 48b; 58a, 58b) of the tilting plate (18; 46; 56) and the support beam (16a, 16b; 44a, 44b; 54a, 54b) to a support member (14a, 14b; 42; 52a, 52b) side, and the at least a part of the protruding portion (26a, 26b, 27a, 27b, 28a, 28b, 29a, 29b, 32a, 32b, 34a, 34b; 62a, 62b) comes into contact with the other of the substrate and the tilting plate (18; 46; 56), when the tilting plate (18; 46; 56) tilts. a substrate; a tilting plate (18; 46; 56) arranged at an interval from the substrate; a support member (14a, 14b; 42; 52a, 52b) fixed to the substrate; and a support beam (16a, 16b; 44a, 44b; 54a, 54b) having a first end connected to the support member (14a, 14b; 42; 52a, 52b) and a second end connected to the tilting plate (18; 46; 56), and tiltably supporting the tilting plate (18; 46; 56) around a tilting axis, wherein one of the substrate and the tilting plate (18; 46; 56) is formed with a protruding portion (26a, 26b, 27a, 27b, 28a, 28b, 29a, 29b, 32a, 32b, 34a, 34b; 62a, 62b), at least a part of the protruding portion (26a, 26b, 27a, 27b, 28a, 28b, 29a, 29b, 32a, 32b, 34a, 34b; 62a, 62b) is included in a plane perpendicular to the tilting axis, and including a connecting portion (24a, 24b; 48a, 48b; 58a, 58b) of the tilting plate (18; 46; 56) and the support beam (16a, 16b; 44a, 44b; 54a, 54b), with respect to a direction along the tilting axis, a side end portion of the tilting plate (18; 46; 56) extends beyond the connecting portion (24a, 24b; 48a, 48b; 58a, 58b) of the tilting plate (18; 46; 56) and the support beam (16a, 16b; 44a, 44b; 54a, 54b) to a support member (14a, 14b; 42; 52a, 52b) side, and the at least a part of the protruding portion (26a, 26b, 27a, 27b, 28a, 28b, 29a, 29b, 32a, 32b, 34a, 34b; 62a, 62b) comes into contact with the other of the substrate and the tilting plate (18; 46; 56), when the tilting plate (18; 46; 56) tilts.
Push-button switch, in particular for use in keypads, with a film switch arrangement which comprises a contact carrier layer with at least one contact (24, 25) and a switch contact layer with at least one closing contact, which layers are arranged at a distance from each other, with an actuating element which is exposed for manual actuation, with a spring arrangement which is arranged between the actuating element and the film switch arrangement, and which is arranged adjacent firstly to the actuating element and secondly to the film switch arrangement, characterised in that the spring arrangement is a bending spring which rests on the actuating element in at least two mutually spaced locations, and that the bending spring has a middle portion which is in contact with the film switch arrangement.
A guiding tube for stimulation leads, comprising a longitudinal, dimensionally stable tubular body encompassing an inner channel adapted to receive a stimulation lead comprising at least one directional electrode wherein at least one section of an otherwise electrically insulated inner surface of the tubular body has electroconductive properties, has an open, non-circular cross section in a plane perpendicular to the longitudinal axis of the tubular body, and is adapted to be contacted by the at least one directional electrode of the stimulation lead that is inserted into the inner channel.
A smart home controller refrigerator, comprising: one or more storage spaces; one or more doors (101, 102, 103, 104) for controlling an opening and closing of the one or more storage spaces, wherein one of the doors (101, 102, 103, 104) comprises an interface unit that is configured to control an operation of the smart home controller refrigerator; and a control unit comprising a control protocol communication unit configured to receive control information for controlling a home appliance in home from an external server or a portable device, wherein the control unit further comprises: a storage unit configured to store the control information; an operation protocol communication unit configured to generate an operation signal calculated from the control information; and a signal transmitting unit (341, 342,..., 349) configured to transmit the operation signal, corresponding to an operation protocol, to the home appliance; characterized in that an infrared light emitting unit (441, 442, 443, 444, 445, 446) and an infrared light receiving unit (1441, 1451) that are configured to sense an external touch are arranged in the interface unit, and the infrared light emitting unit (441, 442, 443, 444, 445, 446) is the signal transmitting unit and is configured to transmit an infrared signal for controlling the home appliance according to the operation protocol, and wherein the operation protocol comprises infrared communication. one or more storage spaces; one or more doors (101, 102, 103, 104) for controlling an opening and closing of the one or more storage spaces, wherein one of the doors (101, 102, 103, 104) comprises an interface unit that is configured to control an operation of the smart home controller refrigerator; and a control unit comprising a control protocol communication unit configured to receive control information for controlling a home appliance in home from an external server or a portable device, wherein the control unit further comprises: a storage unit configured to store the control information; an operation protocol communication unit configured to generate an operation signal calculated from the control information; and a signal transmitting unit (341, 342,..., 349) configured to transmit the operation signal, corresponding to an operation protocol, to the home appliance; characterized in that an infrared light emitting unit (441, 442, 443, 444, 445, 446) and an infrared light receiving unit (1441, 1451) that are configured to sense an external touch are arranged in the interface unit, and the infrared light emitting unit (441, 442, 443, 444, 445, 446) is the signal transmitting unit and is configured to transmit an infrared signal for controlling the home appliance according to the operation protocol, and wherein the operation protocol comprises infrared communication.
Method for metal-coating at least one surface of a workpiece, in which - before coating, a surface structure with peaks and troughs in the surface to be coated is detected by means of a measuring apparatus, - the coating is carried out by means of at least one deposition apparatus, which is moved relative to the surface and coating material is applied in the process, characterized in that - the deposition apparatus is controlled by a control apparatus on the basis of the detected surface structure, wherein more material is applied in the region of troughs and less material is applied in the region of peaks, - in that the coating is carried out as laser deposition welding, - in that during the laser deposition welding, metal powder is deposited on the surface to be coated by means of the deposition apparatus and - in that, by means of a laser, the applied metal powder is locally melted, with the coating being formed, and - in that during the coating, the quantity of applied metal powder and/or a power of the laser is controlled by the control apparatus. - before coating, a surface structure with peaks and troughs in the surface to be coated is detected by means of a measuring apparatus, - the coating is carried out by means of at least one deposition apparatus, which is moved relative to the surface and coating material is applied in the process, characterized in that - the deposition apparatus is controlled by a control apparatus on the basis of the detected surface structure, wherein more material is applied in the region of troughs and less material is applied in the region of peaks, - in that the coating is carried out as laser deposition welding, - in that during the laser deposition welding, metal powder is deposited on the surface to be coated by means of the deposition apparatus and - in that, by means of a laser, the applied metal powder is locally melted, with the coating being formed, and - in that during the coating, the quantity of applied metal powder and/or a power of the laser is controlled by the control apparatus.
An agent for coloring keratin-containing fibers, in particular human hair, the agent containing (i) 2-(2-hydroxyethyl)-p-phenylenediamene and/or at least one physiologically acceptable salt thereof, (ii) an acylated amino acid derivative of the formula where R 1 is a C 7 -C 30 alkyl group, a C 7 -C 30 alkenyl group or a C 7 -C 30 hydroxyalkyl group, R 2 and R 3 independently of one another represent a hydrogen atom, a C 1 -C 4 alkyl group or a C 1 -C 4 hydroxyalkyl group, and M is a hydrogen atom or an equivalent of a monovalent or polyvalent cation, (iii) and at least one hydroxyalkyl amine. (i) 2-(2-hydroxyethyl)-p-phenylenediamene and/or at least one physiologically acceptable salt thereof, (ii) an acylated amino acid derivative of the formula where R 1 is a C 7 -C 30 alkyl group, a C 7 -C 30 alkenyl group or a C 7 -C 30 hydroxyalkyl group, R 2 and R 3 independently of one another represent a hydrogen atom, a C 1 -C 4 alkyl group or a C 1 -C 4 hydroxyalkyl group, and M is a hydrogen atom or an equivalent of a monovalent or polyvalent cation, R 1 is a C 7 -C 30 alkyl group, a C 7 -C 30 alkenyl group or a C 7 -C 30 hydroxyalkyl group, R 2 and R 3 independently of one another represent a hydrogen atom, a C 1 -C 4 alkyl group or a C 1 -C 4 hydroxyalkyl group, and M is a hydrogen atom or an equivalent of a monovalent or polyvalent cation, (iii) and at least one hydroxyalkyl amine.
A method comprising: determining a digital map representative of a physical environment and of a first robotic device and a second robotic device within the physical environment, wherein the digital map includes an indication of a predicted future location of the first robotic device and a predicted time at which the first robotic device will arrive at the predicted future location to perform a coordinated task phase of a task; causing the first robotic device to perform the task comprising a plurality of task phases, the plurality including the coordinated task phase to be performed with the second robotic device, the coordinated task phase comprising a transfer of an object between the first and second robotic devices; during a performance of at least one of the plurality of task phases by the first robotic device, receiving, from the first robotic device, task progress data indicative of which of the plurality of task phases have been performed by the first robotic device; based on the received task progress data, updating the digital map to include an indication of a change in one or more of the predicted future location and the predicted time for performing the coordinated task phase; and based on the updated digital map indicating the change, causing the second robotic device to perform the coordinated task phase with the first robotic device at one or more of the changed predicted future location and the changed predicted time. determining a digital map representative of a physical environment and of a first robotic device and a second robotic device within the physical environment, wherein the digital map includes an indication of a predicted future location of the first robotic device and a predicted time at which the first robotic device will arrive at the predicted future location to perform a coordinated task phase of a task; causing the first robotic device to perform the task comprising a plurality of task phases, the plurality including the coordinated task phase to be performed with the second robotic device, the coordinated task phase comprising a transfer of an object between the first and second robotic devices; during a performance of at least one of the plurality of task phases by the first robotic device, receiving, from the first robotic device, task progress data indicative of which of the plurality of task phases have been performed by the first robotic device; based on the received task progress data, updating the digital map to include an indication of a change in one or more of the predicted future location and the predicted time for performing the coordinated task phase; and based on the updated digital map indicating the change, causing the second robotic device to perform the coordinated task phase with the first robotic device at one or more of the changed predicted future location and the changed predicted time.
A method for protecting heat exchanger tubes in boiler plants with at least one heat exchanger tube, which is enveloped by a ceramic component toward which flue gas flows from at least two opposite sides, wherein the ceramic component is made up of ceramic elements, the supplied gas is guided in the ceramic component, and gas is supplied by a blower into a space (48, 49, 50) comprised of the heat exchanger tube and ceramic component, so that the gas between the heat exchanger tube and ceramic component protects the heat exchanger tube by virtue of the fact that a slight excess pressure of inflowing gas prevents flue gas from penetrating through gaps between the ceramic elements of the ceramic component to the heat exchanger tubes.
A method for selecting a temporary core network in a Long Term Evolution, LTE, trunking communication system to realize the fail-soft, comprises: setting unified judgment information and judgement rule; a base station receiving judgment information sent from other base stations and sending judgment information of the base station itself to said other base stations; and after a core network fails, the base station accepting a judgment result made according to the judgment information and the judgement rule by each base station, and serving as a temporary core network. setting unified judgment information and judgement rule; a base station receiving judgment information sent from other base stations and sending judgment information of the base station itself to said other base stations; and after a core network fails, the base station accepting a judgment result made according to the judgment information and the judgement rule by each base station, and serving as a temporary core network.
A weather shield attached to a sash of a skylight window such that said weather shield covers said sash, said weather shield comprising a dome portion surrounded by and extending into a skirt portion, inner edges of said skirt portion forming a skirt plane, said dome portion having an apex, a cross-sectional plane normal to said skirt plane extending through said apex, the apex projected onto said skirt plane defining a point A positioned a distance AB in said cross-sectional plane from a point B of said inner edges, wherein said sash encompasses a plane, multiple layer insulating window pane, said apex is positioned at an apex height H from said point A, said dome portion has a height h greater than or equal to 0.6H from a point C at a distance of 0.2AB from said point B towards said point A, tangents to said dome portion in said cross-sectional plane at all points from said point B to said apex in relation to said skirt plane form angles in a range from 0 to 70°, preferably 0 to 60°, and said skirt portion is attached to said sash such that said weather shield covers said sash.
An intraluminal imaging device, comprising: a flexible elongate member comprising a catheter, the flexible elongate member configured to be positioned within a body lumen of a patient, wherein the flexible elongate member comprises a proximal portion and a distal portion; and an imaging assembly disposed at the distal portion of the flexible elongate member and configured to obtain intraluminal image data while positioned within the body lumen, wherein the distal portion of the flexible elongate member comprises a region proximal to the imaging assembly, wherein the region comprises a first hardness that is less than a second hardness of the proximal portion of the flexible elongate member such that the region is more flexible than the proximal portion, wherein the region comprises: an inner member; a first adhesive configured to provide the first hardness, wherein the first adhesive surrounds the inner member; a communication line configured to carry signals associated with the imaging assembly; and an outer polymer layer surrounding the first adhesive, characterized in that the inner member defines a guidewire lumen, and the communication line is embedded within the first adhesive. a flexible elongate member comprising a catheter, the flexible elongate member configured to be positioned within a body lumen of a patient, wherein the flexible elongate member comprises a proximal portion and a distal portion; and an imaging assembly disposed at the distal portion of the flexible elongate member and configured to obtain intraluminal image data while positioned within the body lumen, wherein the distal portion of the flexible elongate member comprises a region proximal to the imaging assembly, wherein the region comprises a first hardness that is less than a second hardness of the proximal portion of the flexible elongate member such that the region is more flexible than the proximal portion, wherein the region comprises: an inner member; a first adhesive configured to provide the first hardness, wherein the first adhesive surrounds the inner member; a communication line configured to carry signals associated with the imaging assembly; and an outer polymer layer surrounding the first adhesive, an inner member; a first adhesive configured to provide the first hardness, wherein the first adhesive surrounds the inner member; a communication line configured to carry signals associated with the imaging assembly; and an outer polymer layer surrounding the first adhesive, characterized in that the inner member defines a guidewire lumen, and the communication line is embedded within the first adhesive.
A pumping system, in particular, for transporting gaseous and/or liquid media having two parallel hydraulically operated oscillating piston pumps (2, 3), whose pistons are moved by means of electromagnetic fields, wherein the oscillating piston pumps (2, 3) comprise field coils (10, L1, L2) and wherein the electromagnetic fields are generated in the field coils (10, L1, L2) by means of half-wave direct current pulse, wherein a circuit arrangement is provided that can be connected to an alternating current source and which has two electric branches connected in parallel that are respectively connected with the field coil (L1, L2) of one of the oscillating piston pumps (2, 3), wherein the circuit arrangement is equipped in such a way that the field coils (10, L1, L2) are operated electrically out of phase so that the oscillating piston pumps (2, 3) are operated with a phase displacement of 180° and in the first branch and in the second branch a rectifier element (D1, D2) is provided that is respectively connected in series to the corresponding field coil (10, L1, L2), wherein the rectifier elements (D1, D2) are poled opposite characterized in that the circuit arrangement has a first connection for connecting to a first alternating current connection of the alternating current source and a second connection for connecting to a second alternating current connection of the alternating current source, and that the first connection is connected via a first rectifier element with an electric inlet of the field coil of the first oscillating piston pump and directly with an electric outlet of the field coil of the second oscillating piston pump; and that the second connection is connected via a second rectifier element with an electric inlet of the field coil of the second oscillating piston pump and directly with an electric outlet of the field coil of the first oscillating piston pump.