mhurhangee/ep-ind-claims huggingface dataset:
A method for handling piece goods during and/or in the context of grouping the piece goods and/or forming layers thereof, in particular for the purpose of forming palletisable layers that each consist of a plurality of piece goods, - wherein the method provides a single- or multiple-row conveyance of the piece goods by means of at least one transport device in a transport direction, in each case in closed and/or unspaced formation, or in a formation with spaces in each case between the piece goods, to a grouping module with at least one horizontal conveyor and with at least one manipulator, - wherein the piece goods are successively seized, individually or in groups of two or more piece goods, by the manipulator moving within a seizing range within the grouping module from the at least one closed formation or the formation with spaces present, and are brought into a defined layer arrangement by being rotated and/or shifted and/or lifted, - whereupon the piece goods, having been brought into the layer arrangement, are conveyed further in transport direction to further handling modules, stacking modules, and/or palletising modules arranged downstream from the grouping module, characterised in that at least one of the handling steps of seizing, rotating, shifting, and/or lifting at least one piece good, the handling steps being carried out within the grouping module temporally successively one after the other in order to form a defined layer arrangement, provides at least one particular piece good to be lifted up and lifted over at least one other piece good (2*) located in the seizing range, which other piece good (2*) has already previously been seized and shifted, rotated and/or lifted by the manipulator and thereby repositioned for layer formation, wherein the at least one piece good seized by the manipulator is lifted over the other piece good (2*) located in the seizing range in such a manner that it is located in transport direction in front of or laterally offset to the already positioned piece good. - wherein the method provides a single- or multiple-row conveyance of the piece goods by means of at least one transport device in a transport direction, in each case in closed and/or unspaced formation, or in a formation with spaces in each case between the piece goods, to a grouping module with at least one horizontal conveyor and with at least one manipulator, - wherein the piece goods are successively seized, individually or in groups of two or more piece goods, by the manipulator moving within a seizing range within the grouping module from the at least one closed formation or the formation with spaces present, and are brought into a defined layer arrangement by being rotated and/or shifted and/or lifted, - whereupon the piece goods, having been brought into the layer arrangement, are conveyed further in transport direction to further handling modules, stacking modules, and/or palletising modules arranged downstream from the grouping module,
An apparatus for delivering power down all conductors of an Ethernet connection comprising: an Ethernet conductor having eight conductors arranged as four pairs of conductors for connecting a Power Source Equipment, PSE, to a Powered Device, PD, each of the conductor pairs including a power switch (M1 - M4) disposed inline with the conductor pairs, wherein a first set of the conductor pairs are electrically connected in parallel between a positive side of the PSE and the PD and a second set of the conductor pairs are electrically connected in parallel between a negative side of the PSE and the PD; the PSE being configured to provide inline power to the PD through all of the conductor pairs; control circuitry coupled to each set of the conductor pairs for controlling the power switches (M1 - M4) in those conductor pairs; each control circuitry configured to sense the current flowing through its respective power switches (M1 - M4); and each control circuitry being configured to control its respective power switches (M1 - M4) to maintain the current flow through the power switches (M1 - M4) below a predetermined level, wherein each control circuitry is configured to independently sense a potential over-current condition due to an imbalance in the effective resistance between its respective conductor pairs and to control its power switches to balance current flow in its conductor pairs to prevent a shut down of the Ethernet port to which the set of conductor pairs is connected. an Ethernet conductor having eight conductors arranged as four pairs of conductors for connecting a Power Source Equipment, PSE, to a Powered Device, PD, each of the conductor pairs including a power switch (M1 - M4) disposed inline with the conductor pairs, wherein a first set of the conductor pairs are electrically connected in parallel between a positive side of the PSE and the PD and a second set of the conductor pairs are electrically connected in parallel between a negative side of the PSE and the PD; the PSE being configured to provide inline power to the PD through all of the conductor pairs; control circuitry coupled to each set of the conductor pairs for controlling the power switches (M1 - M4) in those conductor pairs; each control circuitry configured to sense the current flowing through its respective power switches (M1 - M4); and each control circuitry being configured to control its respective power switches (M1 - M4) to maintain the current flow through the power switches (M1 - M4) below a predetermined level, wherein each control circuitry is configured to independently sense a potential over-current condition due to an imbalance in the effective resistance between its respective conductor pairs and to control its power switches to balance current flow in its conductor pairs to prevent a shut down of the Ethernet port to which the set of conductor pairs is connected.
Lamp for the illumination of an area of a building, in particular, an office, wherein the lamp comprises: - illumination means for the provision of color changeable light, - a support device on which the illumination means are mounted, - a control unit for the time-dependent controlling of the lamp, wherein the control unit is configured with control commands for controlling the illumination means, - a current source or a connection for a current source, for supplying the lamp with energy, - a time module disposed in or on the lamp that is configured to independently provide time information and, optionally, the current time of day, and - a communication device for the communication between a data carrier and the control unit, wherein the communication device is configured to read out data that is stored on the data carrier and that contain time information, in accordance with the time information provided by the time module for the time dependent controlling of the lamp and to transmit it to the control unit, - wherein the control unit is further configured to synchronize the time information contained in the data with the time of day provided by the time module and to change it into control commands, - wherein the time-dependent controlling of the lamp includes a time-dependent change in the color of the light emitted by the illumination means, characterized in that the lamp further comprises a switch for manually turning on and off the illumination means, - wherein the data carrier is a portable data memory and the lamp is configured such that the data carrier can be connected to and disconnected from it. - illumination means for the provision of color changeable light, - a support device on which the illumination means are mounted, - a control unit for the time-dependent controlling of the lamp, wherein the control unit is configured with control commands for controlling the illumination means, - a current source or a connection for a current source, for supplying the lamp with energy, - a time module disposed in or on the lamp that is configured to independently provide time information and, optionally, the current time of day, and - a communication device for the communication between a data carrier and the control unit, wherein the communication device is configured to read out data that is stored on the data carrier and that contain time information, in accordance with the time information provided by the time module for the time dependent controlling of the lamp and to transmit it to the control unit, - wherein the control unit is further configured to synchronize the time information contained in the data with the time of day provided by the time module and to change it into control commands, - wherein the time-dependent controlling of the lamp includes a time-dependent change in the color of the light emitted by the illumination means, characterized in that the lamp further comprises a switch for manually turning on and off the illumination means, - wherein the data carrier is a portable data memory and the lamp is configured such that the data carrier can be connected to and disconnected from it.
An emission device comprising a light flux control member provided with a recess and a light control emission face, and a light-emitting element capable of being accommodated in the recess, light emitted from the light-emitting element emerging from the light control emission face after travelling within the light flux control member, wherein the light control emission face is configured so as to satisfy Condition 1 below, for at least light which is emitted within a half-intensity angular range around a maximum-intensity emission direction of the light-emitting element; characterised in that the light control emission face includes a first emission face region crossing the standard optical axis, which is the direction of light travel at the centre of the three-dimensional emission flux of the light-control member and coincides with the optical axis of the light-emitting element, and a second emission face region extending around the first emission face region, the first and second emission face regions (6a, 6b) having a connecting portion in which a point of inflection (Po) exists, wherein the first emission face region is shaped like a partially removed sphere providing a concave configuration and the second emission face region is shaped like a ring-band-like disk having a convex configuration, and the light control emission face is further configured so as to satisfy Condition 2 below, for at least light which is emitted within a half-intensity angular range around a maximum-intensity emission direction of the light-emitting element; • Condition 1: θ5/θ1 > 1 is satisfied except for light emitted within an angular range of ± 5° with respect to the standard optical axis of the emission device; • Condition 2: The value of θ5/θ1 decreases gradually as θ1 increases; where θ1 is the emission angle of light emitted from the light-emitting element, the light emerges from the light control emission face of the light flux control member, and θ5 is the emission angle at which it emerges. • Condition 1: θ5/θ1 > 1 is satisfied except for light emitted within an angular range of ± 5° with respect to the standard optical axis of the emission device; • Condition 2: The value of θ5/θ1 decreases gradually as θ1 increases;
A turbomachine comprising a drive gearbox for pieces of equipment comprising a main shaft rotationally connected to a power transmission shaft of the turbomachine, with the main shaft comprising at least one bevel gear rotationally driving at least one piece of equipment, characterized in that it comprises a gear set with cylindrical gearwheels (44a, 44b, 44c, 44d, 44e) comprising an input connected to the rotational drive to the main shaft and comprising a plurality of outputs, each intended to drive one piece of equipment (48a, 48b, 48c, 48d, 48e), with the gear set extending over an angular sector and the outputs (46a, 46b, 46c, 46d, 46e) being angularly spaced apart about the axis of the turbomachine, along the angular sector.
A chime (10, 50) configured to be mounted to a keg, the chime (10, 50) comprising a handle and being characterised in that the handle has a waveform profile when viewed in cross-section along a length direction of the handle, wherein the waveform profile defines at least one region of inflection (22a, 22b, 22c) forming at least part of a first surface of the handle, and at least one further region of inflection (23a, 23b) forming at least part of a second surface of the handle.
Flat hairspring intended to be mounted on the balance-staff of a regulating member of a mechanical watch, the hairspring being formed of a blade of a substantially constant thickness in the hairspring's plane, the hairspring comprising: several internal turns (S 1, S 2,.., S N-1) for which the distance ( Þ) between each point and the centre of rotation of the hairspring varies in a linear manner depending on the angular position (θ) of this point when the hairspring is at rest; an external turn (S N) for which the distance ( Þ) between each point and said centre of rotation is a non-linear function (f 2) of the angular position (θ) of the point when the hairspring is at rest; said internal turn and said external turn being all on the same plane; characterised in that the section of the internal and external turns of the hairspring is substantially constant; and in that the hairspring comprises an internal extremity and an external extremity, said non-linear function (f 2) containing a point of maximum radius at a distance from said external extremity, said distance ( Þ) between each point of the last turn (S N) and the centre of rotation increasing then decreasing depending on the angular position (θ) of the point when the hairspring is at rest, said non-linear function (f 2) being intended to reduce the lateral pressure exerted by the hairspring on said balance-staff when the hairspring is mounted on this axis relatively to the pressure that would be exerted if the external turn was produced in such a way that the distance ( Þ) between each point of this external turn and the centre of rotation of the hairspring varies in a linear manner depending on the angular position (θ) of the point when the hairspring is at rest. several internal turns (S 1, S 2,.., S N-1) for which the distance ( Þ) between each point and the centre of rotation of the hairspring varies in a linear manner depending on the angular position (θ) of this point when the hairspring is at rest; an external turn (S N) for which the distance ( Þ) between each point and said centre of rotation is a non-linear function (f 2) of the angular position (θ) of the point when the hairspring is at rest; said internal turn and said external turn being all on the same plane;
An aircraft engine comprising: a shaft rotatable about a central axis and engaged at an end thereof to a rotatable load via splines; a reference tube (28; 128) circumferentially extending around the shaft, the reference tube (28; 128) having a first end secured to the shaft for rotation with the shaft and a second end (28a; 128a) free relative to the shaft for measuring a deformation of the shaft, the reference tube (28; 128) defining at least one tube aperture through the reference tube (28; 128); an oil nozzle fluidly connected to a source of oil, the oil nozzle defining an exit flow axis intersecting the at least one tube aperture for injecting oil through the reference tube (28; 128), the shaft defining at least one shaft aperture extending through the shaft, an oil flow path extending from the oil nozzle to the splines via the at least one tube aperture and via the at least one shaft aperture for lubricating the splines; and a drain outlet (30; 130) located radially outwardly of an inlet of the at least one shaft aperture for outputting excess oil out of an annular gap defined between the shaft and the reference tube (28; 128), the drain outlet (30; 130) being preferably provided in the form of an annular space defined radially between an end of the reference tube and the shaft. a shaft rotatable about a central axis and engaged at an end thereof to a rotatable load via splines; a reference tube (28; 128) circumferentially extending around the shaft, the reference tube (28; 128) having a first end secured to the shaft for rotation with the shaft and a second end (28a; 128a) free relative to the shaft for measuring a deformation of the shaft, the reference tube (28; 128) defining at least one tube aperture through the reference tube (28; 128); an oil nozzle fluidly connected to a source of oil, the oil nozzle defining an exit flow axis intersecting the at least one tube aperture for injecting oil through the reference tube (28; 128), the shaft defining at least one shaft aperture extending through the shaft, an oil flow path extending from the oil nozzle to the splines via the at least one tube aperture and via the at least one shaft aperture for lubricating the splines; and a drain outlet (30; 130) located radially outwardly of an inlet of the at least one shaft aperture for outputting excess oil out of an annular gap defined between the shaft and the reference tube (28; 128), the drain outlet (30; 130) being preferably provided in the form of an annular space defined radially between an end of the reference tube and the shaft.
A hard disk drive carrier for reducing airflow-induced vibration of a hard disk drive (112, 412) disposed within an enclosure with an airflow moving in operation from a first end of the enclosure to a second end of the enclosure, comprising: a bracket assembly configured to removably secure the hard disk drive (112, 412) to a receiving component within the enclosure, the bracket assembly configured for substantially exposing major surfaces (112C, 112D) of the hard disk drive (112, 412) to yield exposed surfaces (112C, 112D) and for mounting within the enclosure so that a first end of the hard disk drive (112, 412) faces the first end of the enclosure and a second end (112B, 412B) of the hard disk drive (112, 412) faces the second end of the enclosure, the bracket assembly comprising at least one end member (210A, 410A) configured to be associated with the second end of the hard disk drive (112, 412); the hard disk drive carrier being characterised by further comprising: an airfoil assembly comprising one or more louvers (414A, 414B) configured to extend from said at least one end member (210A, 410A) associated with at least the second end (112B, 412B) of the hard disk drive (112, 412) and partially cover at least one of the exposed major surfaces (112C, 112D) of the hard disk drive to minimise disruption of the airflow. a bracket assembly configured to removably secure the hard disk drive (112, 412) to a receiving component within the enclosure, the bracket assembly configured for substantially exposing major surfaces (112C, 112D) of the hard disk drive (112, 412) to yield exposed surfaces (112C, 112D) and for mounting within the enclosure so that a first end of the hard disk drive (112, 412) faces the first end of the enclosure and a second end (112B, 412B) of the hard disk drive (112, 412) faces the second end of the enclosure, the bracket assembly comprising at least one end member (210A, 410A) configured to be associated with the second end of the hard disk drive (112, 412); the hard disk drive carrier being characterised by further comprising: an airfoil assembly comprising one or more louvers (414A, 414B) configured to extend from said at least one end member (210A, 410A) associated with at least the second end (112B, 412B) of the hard disk drive (112, 412) and partially cover at least one of the exposed major surfaces (112C, 112D) of the hard disk drive to minimise disruption of the airflow.
A method of operating an electric motor of a vehicle, the method comprising: detecting a position of a first actuator included in the vehicle, the first actuator controlling a drive torque of the vehicle; detecting a position of a second actuator included in the vehicle, the second actuator controlling a regenerative braking force of a wheel (22, 24) of the vehicle; mapping the position of the first actuator to a first requested torque; mapping the position of the second actuator to a second requested torque, the second requested torque represented as a percentage between 0% and 100% based on the position of the second actuator; determining, with an electronic control unit, a torque command based on the first requested torque and the second requested torque by multiplying the first requested torque by the second requested torque; and transmitting the torque command to the electric motor included in the vehicle to regenerative braking the wheel (22, 24), wherein regenerative braking provided via the electric motor based on the torque command is the sole braking mechanism provided for the wheel (22, 24). detecting a position of a first actuator included in the vehicle, the first actuator controlling a drive torque of the vehicle; detecting a position of a second actuator included in the vehicle, the second actuator controlling a regenerative braking force of a wheel (22, 24) of the vehicle; mapping the position of the first actuator to a first requested torque; mapping the position of the second actuator to a second requested torque, the second requested torque represented as a percentage between 0% and 100% based on the position of the second actuator; determining, with an electronic control unit, a torque command based on the first requested torque and the second requested torque by multiplying the first requested torque by the second requested torque; and transmitting the torque command to the electric motor included in the vehicle to regenerative braking the wheel (22, 24), wherein regenerative braking provided via the electric motor based on the torque command is the sole braking mechanism provided for the wheel (22, 24).