mhurhangee/ep-ind-claims huggingface dataset:
A crop gathering belt comprising a gathering belt carcass; characterised in that, the crop gathering belt further comprises a plurality of attachable lugs for connecting to the gathering belt carcass on a first side of the gathering belt carcass, and a system for securely attaching lugs comprised in the plurality of attachable lugs, to the gathering belt carcass, wherein the gathering belt carcass further comprises a plurality of drive lugs disposed on a side opposite the first side of the gathering belt carcass.
Printed circuit board with an insulated metal substrate, comprising a metal carrier, an insulating layer and a metal layer on which at least one electronic component is mounted in at least one mounting zone of the metal layer, each mounting zone being a raised zone of the metal layer and characterized in that each mounting zone is a zone of a lower metal layer, each mounting zone being surrounded by a dielectric layer placed on the lower metal layer, and an upper metal layer placed on the dielectric layer.
A method for compensating range offset of a range sensor, the range sensor having a predetermined position in a spatial environment and comprising a pixel array adapted for measuring a distance of each pixel of the pixel array to a corresponding position (p) in the spatial environment, the spatial environment comprising at least two stationary reference positions (p1,p2), a first resp. second reference position (p1, p2) located at a first resp. second predetermined reference distance (rd1, rd2) from the range sensor, the method comprising the steps of: a) determining a distance value (m1, m2) to each of the at least two reference positions (p1, p2) using the pixel array; b) calculating a difference (Δ1, Δ2) between each determined distance value (m1, m2) and the corresponding predetermined reference distance (rd1, rd2) of the at least two reference positions (p1, p2); c) determining an in-situ range offset value (rov) of the range sensor by calculating the maximum of the at least two differences (Δ1, Δ2). d) measuring a plurality of distance values (m) to positions (p) within the spatial environment using the pixel array; e) correcting the measured distance values (m) by subtracting the determined in-situ range offset value (rov) from each of the measured distance values (m). a) determining a distance value (m1, m2) to each of the at least two reference positions (p1, p2) using the pixel array; b) calculating a difference (Δ1, Δ2) between each determined distance value (m1, m2) and the corresponding predetermined reference distance (rd1, rd2) of the at least two reference positions (p1, p2); c) determining an in-situ range offset value (rov) of the range sensor by calculating the maximum of the at least two differences (Δ1, Δ2). d) measuring a plurality of distance values (m) to positions (p) within the spatial environment using the pixel array; e) correcting the measured distance values (m) by subtracting the determined in-situ range offset value (rov) from each of the measured distance values (m).
A pallet truck comprising: an operator handle; and a non-contact switch device comprising a magnet and a reed switch, wherein the non-contact switch device has on and off positions that are achievable by the presence or absence of magnetic induction between the magnet and the reed switch, wherein the reed switch and magnet of the non-contact switch device are in a spaced apart position and the non-contact switch device is in the off position when a shielding member is located between the magnet and the reed switch, and is in the on position when the shielding member is not located between the magnet and the reed switch, wherein the non-contact switch device is in the off position with the shielding member located between the magnet and the reed switch when the operator handle is in a generally vertical position, and wherein the shielding member has more than one extensions that act as a shield. an operator handle; and a non-contact switch device comprising a magnet and a reed switch, wherein the non-contact switch device has on and off positions that are achievable by the presence or absence of magnetic induction between the magnet and the reed switch, wherein the reed switch and magnet of the non-contact switch device are in a spaced apart position and the non-contact switch device is in the off position when a shielding member is located between the magnet and the reed switch, and is in the on position when the shielding member is not located between the magnet and the reed switch, wherein the non-contact switch device is in the off position with the shielding member located between the magnet and the reed switch when the operator handle is in a generally vertical position, and wherein the shielding member has more than one extensions that act as a shield.
A method of diagnosing and controlling an electric fence system comprising the steps of: a) transmitting a first adjustable power signal along a conduction route of a first electric fence of the electric fence system; b) sampling a first signal output of the first adjustable power signal at a driven end (Out) of the conduction route; c) sampling a second signal output of the first adjustable power signal at an open end (In) of the conduction route; d) analyzing the first signal output and the second signal output to determine a load on the electric fence system; e) setting the first adjustable power signal to a first power level to match capacity to the load; and f) repeating the method from step (a). a) transmitting a first adjustable power signal along a conduction route of a first electric fence of the electric fence system; b) sampling a first signal output of the first adjustable power signal at a driven end (Out) of the conduction route; c) sampling a second signal output of the first adjustable power signal at an open end (In) of the conduction route; d) analyzing the first signal output and the second signal output to determine a load on the electric fence system; e) setting the first adjustable power signal to a first power level to match capacity to the load; and f) repeating the method from step (a).
A pharmaceutical composition comprising glucocorticoid for use in the prophylaxis or mitigation of neurological adverse events caused by the administration of a CD3 binding domain, wherein the GC is administered prior to the administration of the CD3 binding domain and the neurological adverse event, wherein said neurological adverse event is one or more of disturbances of the senses, seizures, encephalopathy, cerebral edema, confusion, ataxia, apraxia, speech disorder, paresis, tremor, or disorientation, wherein the CD3 binding domain is a CD19 x CD3 bispecific antibody.
A system for inductive power transfer to vehicles driving or standing on a surface of a route, in particular to road automobiles, wherein the system comprises a primary winding structure for generating an alternating electromagnetic field, wherein a field volume is assigned to the primary winding structure, wherein the system comprises at least a part of a first heating system, characterized in that the elements of the first heating system which are arranged within the field volume are non-metallic elements, wherein the system comprises at least a part of at least one other heating system, wherein all elements of the other heating system are arranged outside the field volume.
A method of constructing a roof on top of a building, the method comprising: fixing two lower spandrels, one on each of two opposite sides of the top of the building, the lower spandrels each having an upper and a lower parallel side (24, 25) and two sloping sides (26, 27); fixing ceiling panels to the upper parallel sides of both of the spandrels to form a platform; characterized in that, fitting upper spandrels (30a, 30b) above the respective lower spandrels on the ceiling panels; and fitting gable to gable roofing panels (32, 33, 35, 39) to bridge the gap between the sloping sides of the spandrels to form a roof. fixing two lower spandrels, one on each of two opposite sides of the top of the building, the lower spandrels each having an upper and a lower parallel side (24, 25) and two sloping sides (26, 27); fixing ceiling panels to the upper parallel sides of both of the spandrels to form a platform; characterized in that, fitting upper spandrels (30a, 30b) above the respective lower spandrels on the ceiling panels; and fitting gable to gable roofing panels (32, 33, 35, 39) to bridge the gap between the sloping sides of the spandrels to form a roof.
Chipping machining tool comprising a band-shaped tooth supporting body and a plurality of teeth each comprising a tooth tip which are covered with cutting particles to form a plurality of geometrically undefined cutting portions, wherein the tooth tip is covered with buffer particles of a different material than the cutting particles, the buffer particles being located between the cutting particles, characterized in that the buffer particles have been or are removed during the manufacturing process, by a separate initialising process or at the start of the chipping machining and the buffer particles do not cause the chipping machining of the workpiece.
A copper alloy plate comprising, by mass%: Mg of 0.3 to 2%; P of 0.001 to 0.1%; Zr of 0.001 to 0.03 %; the balance being Cu and inevitable impurities, wherein an area fraction of those crystal grains of the copper alloy material, wherein an average misorientation between all pixels in each crystal grain is less than 4°, is 45 to 55% of a measured area, wherein the measurement of orientations of all the pixels in the measured area of the surface of the copper alloy material is carried out a) in a step size of 0.5 μm by an EBSD method with a scanning electron microscope of an electron backscattered diffraction image system and b) a boundary in which a misorientation between adjacent pixels is 5° or more is considered as a crystal grain boundary, and wherein a tensile strength of the copper alloy material is 650 to 708 N/mm 2, and a bending elastic limit value is 484 to 503 N/mm 2, and a conductivity is 49 to 66 % IACS. Mg of 0.3 to 2%; P of 0.001 to 0.1%; Zr of 0.001 to 0.03 %; the balance being Cu and inevitable impurities, wherein an area fraction of those crystal grains of the copper alloy material, wherein an average misorientation between all pixels in each crystal grain is less than 4°, is 45 to 55% of a measured area, wherein the measurement of orientations of all the pixels in the measured area of the surface of the copper alloy material is carried out a) in a step size of 0.5 μm by an EBSD method with a scanning electron microscope of an electron backscattered diffraction image system and b) a boundary in which a misorientation between adjacent pixels is 5° or more is considered as a crystal grain boundary, a) in a step size of 0.5 μm by an EBSD method with a scanning electron microscope of an electron backscattered diffraction image system and b) a boundary in which a misorientation between adjacent pixels is 5° or more is considered as a crystal grain boundary, and wherein a tensile strength of the copper alloy material is 650 to 708 N/mm 2, and a bending elastic limit value is 484 to 503 N/mm 2, and a conductivity is 49 to 66 % IACS.
A soil working tool for an agricultural machine with a wear guard against over-wear in the form of at least two wear-resistant plates wherein at least one wear-resistant plate is shaped and adapted to be mounted in such a way that its profile, in the direction of movement of the soil working tool, covers, while in contact with the soil, the front edge of the next arranged wear-resistant plate (2,8), characterised in that said next arranged wear resistant plate (2,8) is attached by a layer of adhesive, and the first wear-resistant plate (2,7) arranged on top of the soil working tool is fastened by brazing.
A chromatography system comprising an apparatus for stopping or reducing a fluid leak in the chromatography system, the apparatus comprising: a coating conforming to a component of the chromatography system; and a responsive material disposed within the coating, wherein the responsive material is configured to increase stiffness in response to being contacted by the leaking fluid, wherein the component comprises tubing, a fitting, a connector, a pump, a column, a column case, a column heater, or a detector. a coating conforming to a component of the chromatography system; and a responsive material disposed within the coating, wherein the responsive material is configured to increase stiffness in response to being contacted by the leaking fluid, wherein the component comprises tubing, a fitting, a connector, a pump, a column, a column case, a column heater, or a detector.
A method comprising: receiving, by a user equipment, UE, signaling from a base station, BS, the signaling including a radio resource control, RRC, signaling, wherein the signaling indicates a UE-specific hopping parameter; and performing, by the UE, an uplink transmission based on the UE-specific hopping parameter, wherein the UE-specific hopping parameter indicates a number of resource blocks, RBs, to be cyclically shifted with regard to an assigned RB to derive a starting RB for a corresponding uplink transmission performed at a corresponding time period of a plurality of time periods, wherein the performing the uplink transmission comprises: performing a grant free, GF, uplink transmission. receiving, by a user equipment, UE, signaling from a base station, BS, the signaling including a radio resource control, RRC, signaling, wherein the signaling indicates a UE-specific hopping parameter; and performing, by the UE, an uplink transmission based on the UE-specific hopping parameter, wherein the UE-specific hopping parameter indicates a number of resource blocks, RBs, to be cyclically shifted with regard to an assigned RB to derive a starting RB for a corresponding uplink transmission performed at a corresponding time period of a plurality of time periods,
A brake actuator comprising: a plurality of actuator housing portions (16, 18), a diaphragm seal, partially delimiting a parking brake de-actuation chamber, retained between adjacent housing portions of the plurality of actuator housing portions (16, 18), an elastic element disposed between the diaphragm seal and one of the housing portions (16, 18) to oppose expansion of the parking brake de-actuation chamber, a push rod operable to produce brake actuation upon depressurization of the parking brake de-actuation chamber, the push rod extending through the parking brake de-actuation chamber, a piston, secured to and movable together with both the push rod and the diaphragm seal, and acting as a seat for the elastic element, characterized by a clamping arrangement by which a central portion of the diaphragm seal is axially clamped between an end of the push rod and a surface of the piston so as to be constrained for movement with both the push rod and the piston. a plurality of actuator housing portions (16, 18), a diaphragm seal, partially delimiting a parking brake de-actuation chamber, retained between adjacent housing portions of the plurality of actuator housing portions (16, 18), an elastic element disposed between the diaphragm seal and one of the housing portions (16, 18) to oppose expansion of the parking brake de-actuation chamber, a push rod operable to produce brake actuation upon depressurization of the parking brake de-actuation chamber, the push rod extending through the parking brake de-actuation chamber, a piston, secured to and movable together with both the push rod and the diaphragm seal, and acting as a seat for the elastic element, characterized by a clamping arrangement by which a central portion of the diaphragm seal is axially clamped between an end of the push rod and a surface of the piston so as to be constrained for movement with both the push rod and the piston.
A washing machine comprising: a tub for accommodating washing water; a transmission coil which is provided in the tub and is configured to transmit power wirelessly by generating a wireless power signal; a cylindrical drum which is disposed inside the tub to accommodate cloth and is rotatable; and a balancer for reducing unbalance generated by a biasing of the cloth during rotation of the drum; wherein the balancer comprises; a reception coil which is provided in the drum and is configured to generate power from a magnetic field formed by the transmission coil; at least two drive modules which are configured to be driven by the power of the reception coil and provided in the drum; and at least one balancing weight which is configured to move along a circumference of the drum by a driving force of each drive module, and to change a center of gravity of the drum, characterized in that the washing machine further comprising: an ammeter which is configured to measure an input current value of the transmission coil; and a controller for controlling the ammeter and the balancer, wherein the controller is configured to determine a position of the balancing weights based on the input current value when the drum rotates. a tub for accommodating washing water; a transmission coil which is provided in the tub and is configured to transmit power wirelessly by generating a wireless power signal; a cylindrical drum which is disposed inside the tub to accommodate cloth and is rotatable; and a balancer for reducing unbalance generated by a biasing of the cloth during rotation of the drum; wherein the balancer comprises; a reception coil which is provided in the drum and is configured to generate power from a magnetic field formed by the transmission coil; at least two drive modules which are configured to be driven by the power of the reception coil and provided in the drum; and at least one balancing weight which is configured to move along a circumference of the drum by a driving force of each drive module, and to change a center of gravity of the drum, an ammeter which is configured to measure an input current value of the transmission coil; and a controller for controlling the ammeter and the balancer, wherein the controller is configured to determine a position of the balancing weights based on the input current value when the drum rotates.
An insertion-removal mechanism for a sample retaining member to be used in an image acquisition device for acquiring an image of a sample, comprising: a stage having a mount surface for the sample retaining member to be mounted thereon, and an opening provided in the mount surface corresponding to a retaining region of the sample in the sample retaining member; a stage driving unit for driving the stage between an insertion-removal position of the sample retaining member and an image acquisition position of the sample; a receiver arranged at the insertion-removal position and having a receiving surface for the sample retaining member and a receiving surface positioning portion for setting a position of the sample retaining member on the receiving surface; and a receiver driving unit for driving the receiver between an advance position where the receiving surface projects out through the opening so as to make a downward slope toward the receiving surface positioning portion and a retraction position where the receiving surface is retracted from the opening, wherein the receiver driving unit is configured to drive the receiver to the advance position in conjunction with movement of the stage from the image acquisition position to the insertion-removal position by the stage driving unit. a stage having a mount surface for the sample retaining member to be mounted thereon, and an opening provided in the mount surface corresponding to a retaining region of the sample in the sample retaining member; a stage driving unit for driving the stage between an insertion-removal position of the sample retaining member and an image acquisition position of the sample; a receiver arranged at the insertion-removal position and having a receiving surface for the sample retaining member and a receiving surface positioning portion for setting a position of the sample retaining member on the receiving surface; and a receiver driving unit for driving the receiver between an advance position where the receiving surface projects out through the opening so as to make a downward slope toward the receiving surface positioning portion and a retraction position where the receiving surface is retracted from the opening, wherein the receiver driving unit is configured to drive the receiver to the advance position in conjunction with movement of the stage from the image acquisition position to the insertion-removal position by the stage driving unit.
Vacuum control unit with at least one base unit for delivering a vacuum to a vacuum load, wherein the base unit has a supply and operating interface for supply and operating connection means as well as supply and operating connection means (15, 16, 28a, 28b) for fitting thereto, an exhaust air interface for an exhaust air discharge unit (29, 31) as well as at least one exhaust air discharge unit (29, 31) for fitting thereto, an exhaust control interface for an exhaust control unit (32, 33) as well as at least one exhaust control unit (32, 33) for fitting thereto, and a communications interface for communication with an external control unit, wherein the supply and operating connection means have collective connection means for the assembly of several base units combined as a subassembly and single connection means for the assembly of a single base unit, characterised in that the collective connection means are formed by a connection strip which has a supply connection which leads into a connection distributor channel system coupled to each of the base units, and has several operating connections, each assigned to one of the base units.
A system for collision avoidance within a monitoring zone of a goods logistics facility, comprising a first transmitter and receiver apparatus, a second transmitter and receiver apparatus, and at least two stationary positioning apparatuses, wherein the positioning apparatuses are configured for transmitting and receiving electromagnetic signals, and the positions of the positioning apparatuses with respect to the monitoring zone can be specified or determined, wherein the first transmitter and receiver apparatus being disposed on an industrial truck and the second transmitter and receiver apparatus being disposed on a movable object, wherein the system is configured for determining an object position of the movable object within the monitoring zone by means of travel time measurement of a signal between the second transmitter and receiver apparatus and the positioning apparatuses, wherein the system is further configured for determining whether a risk of collision exists between the industrial truck and the movable object and for initiating safety measures if a collision risk does exist, wherein the monitoring zone includes at least one separation zone, and wherein the system is configured for defining that there is no collision risk between an industrial truck and a movable object if the object position is located within the separation zone, characterized in that the existence and/or the shape and/or the dimensions and/or the collocation of the separation zone is/are time dependent or variable over time.