mhurhangee/ep-ind-claims huggingface dataset:
Food processing apparatus, comprising a main conveyor means conveying food products in a product stream along a main conveying path and a discharge conveyor means conveying away processed food products along a discharge conveying path and at least one processing station, which has a processing area arranged laterally beside the main conveying path with a removal means, which removes from the product stream food products (9, 91) to be processed from a removal section of the main conveying path and transfers them to the processing area via a removal path transverse to the main conveying path, as well as with a delivery means, which delivers food products (9, 92) processed in the processing area via a delivery path to a delivery section of the discharge conveying path, characterized in that a transverse conveyor means is equipped with a common pivot axis for the removal means and the delivery means, about which pivot axis the removal means as well as the delivery means are pivotable to and fro through a pivoting movement for removal and delivery of said food products (9, 91, 92), and in that a delivery buffer section is set up, which is designed to receive the processed food products (9, 92) intended for delivery to the delivery section, and which is assigned to the delivery means pivotable about the common transverse conveyor means pivot axis, wherein the removal means that is pivotable about the common transverse conveyor means pivot axis covers the removal section for removal of the food products (9, 91) and the delivery means that is pivotable about the common transverse conveyor means pivot axis covers the delivery buffer section for delivery of the food products (9, 92) to the delivery section.
A multi-lens camera module, comprising: at least two lens assemblies, wherein each of the lens assemblies comprises an optical lens; and at least two photosensitive assemblies, wherein each of the photosensitive assemblies comprises a photosensitive sensor and a circuit board; characterized in that the multi-lens camera module comprises an integrated multi-lens camera module conjoined stand having an upside and a downside; wherein said lens assemblies are connected with said upside of said multi-lens camera module conjoined stand, with the respective optical lens being directly connected with said multi-lens camera module conjoined stand so as to form a fixed focus lens assembly, or alternatively, when each of the lens assemblies also comprises a driving motor, with the respective driving motor being connected with said multi-lens camera module conjoined stand so as to form a zoom lens assembly; and said photosensitive assemblies are connected with said downside of said multi-lens camera module conjoined stand, with the respective circuit board being attached on the integrated multi-lens camera module conjoined stand; wherein said lens assemblies are located along paths of photoreception of said photosensitive assemblies respectively. at least two lens assemblies, wherein each of the lens assemblies comprises an optical lens; and at least two photosensitive assemblies, wherein each of the photosensitive assemblies comprises a photosensitive sensor and a circuit board; characterized in that the multi-lens camera module comprises an integrated multi-lens camera module conjoined stand having an upside and a downside; wherein said lens assemblies are connected with said upside of said multi-lens camera module conjoined stand, with the respective optical lens being directly connected with said multi-lens camera module conjoined stand so as to form a fixed focus lens assembly, or alternatively, when each of the lens assemblies also comprises a driving motor, with the respective driving motor being connected with said multi-lens camera module conjoined stand so as to form a zoom lens assembly; and said photosensitive assemblies are connected with said downside of said multi-lens camera module conjoined stand, with the respective circuit board being attached on the integrated multi-lens camera module conjoined stand; wherein said lens assemblies are located along paths of photoreception of said photosensitive assemblies respectively.
A compressor system comprising a screw compressor comprising a suction port to receive fluid at a suction pressure, a plurality of meshing screw rotors (242, 244) to compress the fluid, and a discharge port to discharge the compressed fluid at a discharge pressure that is higher than the suction pressure; an electric motor to receive control signals and to drive the plurality of meshing screw rotors (242, 244) at a speed per the received control signals; a controller to receive status signals indicative of an operating point of the screw compressor, to select a torque profile for the screw compressor based upon the operating point of the screw compressor, and to generate command signals that requests the electric motor be driven per the selected torque profile; and a variable frequency drive to receive the command signals and to generate the control signals that vary torque between the electric motor and the screw compressor per the selected torque profile, wherein the selected torque profile represents variance in torque between the electric motor and the screw compressor during a revolution of the electric motor.
A suction belt conveyor of a stranding machine of the tobacco-processing industry for conveying material, in particular tobacco, with a suction belt guided along a suction belt path having a first portion, a second portion, a third portion, and a fourth portion, a suction device for subjecting the suction belt to under-pressure within the first portion and the second portion of the suction belt path, and a measuring device, wherein the first portion of the suction belt path is arranged such that a lower trough of the suction belt guided along the first portion of the suction belt path collects material through the sucking action of the suction device and forms a material strand thereon, the second portion of the suction belt path merges with the first portion of the suction belt path downstream and is configured in order to guide the suction belt with the material strand arranged thereon and formed in the first portion of the suction belt path, the third portion of the suction belt path merges with the second portion of the suction belt path downstream and is configured in order to disconnect the suction belt from the material strand, and the fourth portion of the suction belt path is arranged downstream of the third portion of the suction belt path and is configured such that the now empty suction belt follows the fourth portion of the suction belt path, wherein the measuring device comprises at least one first sensor, which is configured in order to measure the thickness and/or density of the section belt as properties and thus its wear at a location in the fourth portion of the suction belt path and output a measurement signal of a first type that is indicative of the measured properties of the suction belt, characterized in that the measuring device comprises a second sensor, which is configured in order to measure, as properties of the common arrangement consisting of suction belt and material strand, their moisture and/or its density at a location in the second portion of the suction belt path and output a measurement signal of a third type that is indicative of the measured properties of the common arrangement consisting of material strand and the suction belt, wherein the second sensor is a microwave sensor and is configured in order to function as a resonator and to measure a change in the resonance frequency and/or the quality and/or a slope on a flank of a resonance curve by means of transmission and/or by means of reflection and/or in order to form a mean value from the measurements obtained by transmission and by reflection.
Use of a storage device for at least one component-carrier carriage (4, 4a) of a conveying device for an automated production line, wherein the storage device comprises at least one receiving point and at least one discharge point and multiple storage points (7, 7a), wherein the component-carrier carriages (4, 4a) are conveyed on a transport track, in particular a single-line track, wherein, for the purpose of being stored in the storage points (7, 7a), the component-carrier carriages (4, 4a) are able to be transferred, in particular are able to be lifted off, from said transport track onto a storage track, and wherein at least one traversing carriage (9, 9a, 9b) is comprised, wherein the traversing carriage (9, 9a, 9b) is configured for receiving a component-carrier carriage (4, 4a) transferred, in particular lifted off, from the transport track, characterized in that the traversing carriage (9, 9a, 9b) comprises two crossmembers, wherein the crossmembers receive a component-carrier carriage (4, 4a) at crossmembers of the component-carrier carriage (4, 4a) and transport said component-carrier carriage.
A filter containing a case 1 and a removable cap 2 connected by means of threading elements 11, a cylindrical filtering net 5 placed between the case 1 and the cap 2, characterized in that the case 1 on the side of suction is made as a truncated perforated hollow cone 6, along big base periphery of which a non square full slot 7 is made for the net 5 end with a bow-shaped wall 8 with rectangular slots 9 in the internal side to place longitudinal net 5 ends and with uprights 10 having butt mounting holes for the said threading elements 11; wherein the cap 2 is made as an in-line connecting pipe with an outlet port 3 to supply liquid for pump suction, and flange 12, on periphery of which a non square full slot 14 for another net 5 end is made with in-line holes 15 to place threading elements 11 into the holes of uprights 10 of the case 1.
A coolant temperature sensor abnormality determination apparatus which is applied to an engine cooling system that includes a coolant passageway comprising an engine coolant passageway and a bypass passageway that bypasses an engine, a control valve that can be in an open state to allow mixing of coolant from the engine coolant passageway and coolant from the bypass passageway at a confluence between the engine coolant passageway and the bypass passageway and that can be in a closed state to restrict the mixing of the coolant from the engine coolant passageway and the coolant from the bypass passageway at the confluence between the engine coolant passageway and the bypass passageway, and a bypass coolant temperature sensor that is arranged in the coolant passageway, downstream of the confluence between the engine coolant passageway and the bypass passageway, and that detects a bypass coolant temperature, and which determines whether the bypass coolant temperature sensor is abnormal, the coolant temperature sensor abnormality determination apparatus being characterized by comprising determination means for opening the control valve if an amount of increase of a detected value of the bypass coolant temperature obtained when the bypass coolant temperature is estimated to be equal to or greater than a first predetermined value is smaller than a second predetermined value, and for determining whether the bypass coolant temperature sensor is abnormal based on an amount of change in the detected value of the bypass coolant temperature obtained after the control valve opens.
A sensor, comprising: a conductor having a first end and a second end, the conductor having a bend between the first end connectable to a first element and the second end connectable to a second element, a signal source configured to generate an electric voltage causing a self-capacitance in the conductor relative to a diameter of the bend, wherein the diameter of the bend corresponds to a displacement of the second element in relation to the first element, and to generate an electric sensor signal, the electric sensor signal being applied to the conductor; a signal receiver configured to measure a charge formed by the electric sensor signal from the conductor; and a signal analyzer configured to detect a change in the charge formed by the electric sensor signal, wherein the signal receiver comprises a charge amplifier. a conductor having a first end and a second end, the conductor having a bend between the first end connectable to a first element and the second end connectable to a second element, a signal source configured to generate an electric voltage causing a self-capacitance in the conductor relative to a diameter of the bend, wherein the diameter of the bend corresponds to a displacement of the second element in relation to the first element, and to generate an electric sensor signal, the electric sensor signal being applied to the conductor; to generate an electric voltage causing a self-capacitance in the conductor relative to a diameter of the bend, wherein the diameter of the bend corresponds to a displacement of the second element in relation to the first element, and to generate an electric sensor signal, the electric sensor signal being applied to the conductor; a signal receiver configured to measure a charge formed by the electric sensor signal from the conductor; and a signal analyzer configured to detect a change in the charge formed by the electric sensor signal, wherein the signal receiver comprises a charge amplifier.
A treatment device for fractional laser-based skin treatment, the treatment device comprising: an emission window, a treatment generator (80, 82) comprising a treatment laser (20, 22) and a laser scanning system (30, 35) comprising at least one movable deflection element configured and arranged for scanning laser light across the emission window towards skin tissue from a plurality of locations in the emission window by moving the at least one deflection element relative to the emission window, whereby laser-based lesions are generateable inside the skin tissue, a controller configured for generating a predefined disposition of the lesions in the skin tissue by emitting laser light via selected ones of the locations while the treatment device, in use, is moved relative to the skin surface, wherein the controller is configured for operating at least in an area treatment mode, and wherein, in the area treatment mode, the controller is configured for generating an area disposition of the lesions inside the skin tissue by moving the at least one deflection element relative to the emission window while the treatment device, in use, is moved relative to the skin surface, characterized in that the controller is configured for operating alternatively in the area treatment mode and in a line treatment mode, wherein, in the line treatment mode, the controller is configured to generate a line disposition of the lesions inside the skin tissue by maintaining the at least one deflection element in a stationary position relative to the emission window while the treatment device, in use, is moved relative to the skin surface. an emission window, a treatment generator (80, 82) comprising a treatment laser (20, 22) and a laser scanning system (30, 35) comprising at least one movable deflection element configured and arranged for scanning laser light across the emission window towards skin tissue from a plurality of locations in the emission window by moving the at least one deflection element relative to the emission window, whereby laser-based lesions are generateable inside the skin tissue, a controller configured for generating a predefined disposition of the lesions in the skin tissue by emitting laser light via selected ones of the locations while the treatment device, in use, is moved relative to the skin surface, wherein the controller is configured for operating at least in an area treatment mode, and wherein, in the area treatment mode, the controller is configured for generating an area disposition of the lesions inside the skin tissue by moving the at least one deflection element relative to the emission window while the treatment device, in use, is moved relative to the skin surface,
Equipment (1, 2) for manufacturing a separator plate for a fuel cell, comprising a first uncoiler uncoiling a first metal strip; a second uncoiler uncoiling a second metal strip; a press (30, 30', 30") receiving the first metal strip and the second metal strip to respectively form patterns thereon; a welding machine overlapping and integrally bonding the first metal strip and the second metal strip, transferred from the press, by a welding process; and a cutter cutting a bonded body of the first metal strip and the second metal strip, transferred from the welding machine, characterized in that the press comprises a first mold, a second mold disposed below the first mold, a first punch disposed between the first mold and the second mold to face the first mold, and a second punch disposed between the first mold and the second mold to face the second mold, wherein the first punch and the second punch are configured to be integrally connected and reciprocate integrally between the first mold and the second mold, and wherein the press, the welding machine, and the cutter are sequentially arranged, and the first metal strip and the second metal strip are passed through the press, the welding machine, and the cutter, while connected to each other, to be processed. a first uncoiler uncoiling a first metal strip; a second uncoiler uncoiling a second metal strip; a press (30, 30', 30") receiving the first metal strip and the second metal strip to respectively form patterns thereon; a welding machine overlapping and integrally bonding the first metal strip and the second metal strip, transferred from the press, by a welding process; and a cutter cutting a bonded body of the first metal strip and the second metal strip, transferred from the welding machine, characterized in that the press comprises a first mold, a second mold disposed below the first mold, a first punch disposed between the first mold and the second mold to face the first mold, and a second punch disposed between the first mold and the second mold to face the second mold, wherein the first punch and the second punch are configured to be integrally connected and reciprocate integrally between the first mold and the second mold, and wherein the press, the welding machine, and the cutter are sequentially arranged, and the first metal strip and the second metal strip are passed through the press, the welding machine, and the cutter, while connected to each other, to be processed.
A safety cabinet comprising: a workbench; a first operation chamber which is disposed above the workbench, and into which clean air is supplied; a first operation opening communicating the first operation chamber with the outside; a first inlet port which is disposed at a bottom of the first operation chamber, and which sucks in the clean air supplied into the first operation chamber and air flowing in from the outside through the first operation opening; a second operation chamber which is disposed in the first operation chamber, and into which clean air is supplied; a second inlet port which is disposed at a bottom of the second operation chamber, and which sucks in air in the second operation chamber and a portion of air in the first operation chamber; and a second operation opening facing the first operation opening, the second operation opening communicating the second operation chamber with the first operation chamber, characterized in that the bottom face of the second operation chamber is located below a bottom face of the first operation chamber, and the second inlet port is disposed between the two bottom faces. a workbench; a first operation chamber which is disposed above the workbench, and into which clean air is supplied; a first operation opening communicating the first operation chamber with the outside; a first inlet port which is disposed at a bottom of the first operation chamber, and which sucks in the clean air supplied into the first operation chamber and air flowing in from the outside through the first operation opening; a second operation chamber which is disposed in the first operation chamber, and into which clean air is supplied; a second inlet port which is disposed at a bottom of the second operation chamber, and which sucks in air in the second operation chamber and a portion of air in the first operation chamber; and a second operation opening facing the first operation opening, the second operation opening communicating the second operation chamber with the first operation chamber,
Melon plant which is resistant to Pseudoperonospora cubensis, characterized in that the plant has a reduced level or complete absence of DMR6 protein as compared to the plant that is not resistant to the pathogen wherein said plant has a mutation in its DMR6 gene resulting in a reduced DMR6 expression as compared to the wild-type DMR6 gene wherein no such mutation is present.
An oligoaniline compound represented by the formula. where R 1 and R 2 each independently denote a hydrogen atom or a substituted or unsubstituted monovalent hydrocarbon group selected from alkyl, cycloalkyl, bicycloalkyl and alkenyl groups; t-butoxycarbonyl group, or benzyloxycarbonyl group; R 3 -R 34 each independently denote a hydrogen atom, hydroxyl group, silanol group, thiol group, carboxyl group, phosphoric acid group, phosphoric ester group, ester group, thioester group, amido group, nitro group, substituted or unsubstituted monovalent hydrocarbon group, organooxy group, organoamino group, organosilyl group, organothio group, acyl group, sulfonic group, or halogen atom; and m and n each denote an integer no smaller than 1 such that m+n ≤ 20.
Control logic for a wireless power receiver configured to adapt the wireless power receiver to: establish wireless power reception during a wireless power transfer session from a wireless power transmitter at a first power level; after establishing the wireless power reception at the first power level, execute an authentication process with the wireless power transmitter; if the authentication process completes successfully, send session attribute information to a memory (4, 17); wherein, after sending the session attribute information to the memory, there is an interruption of wireless power reception at the first power level at the wireless power receiver; receive session attribute information from the memory after the interruption of wireless power reception; and after receiving the session attribute information from the memory, establish wireless power reception from the wireless power transmitter at a second power level that is higher than the first power level. establish wireless power reception during a wireless power transfer session from a wireless power transmitter at a first power level; after establishing the wireless power reception at the first power level, execute an authentication process with the wireless power transmitter; if the authentication process completes successfully, send session attribute information to a memory (4, 17); wherein, after sending the session attribute information to the memory, there is an interruption of wireless power reception at the first power level at the wireless power receiver; receive session attribute information from the memory after the interruption of wireless power reception; and after receiving the session attribute information from the memory, establish wireless power reception from the wireless power transmitter at a second power level that is higher than the first power level.