mhurhangee/ep-ind-claims huggingface dataset:
A sheet fed printing press (10, 22), comprising a sheet feeder, comprising at least one printing unit (12; 23) and/or coating unit (13; 24) for printing printed sheets with a static print image, which is identical for all printed sheets, comprising a delivery unit and comprising at least one printing form-free printing device (8, 17, 18; 29; 31-35), which is integrated into the sheet fed printing press (10, 22), for printing the printed sheets with an in particular dynamic, variable print image, that the or each printing form-free printing device (8, 17, 18; 29-35), is integrated into the sheet fed printing press in the area of sheet-guiding cylinders (2, 40) and that provision is made at the sheet-guiding cylinders (2, 40) for devices for adhesively guiding the printed sheets by the generation of a holding force between the underside of the paper surface of the printed sheet and the cylinder surface, thus the outer side of an impression cylinder, wherein the sheet-guiding cylinder (2, 40) is provided with an electrically conducting surface and that a charging device for electrostatically charging the printed sheets is assigned to the sheet-guiding cylinder (2, 40), so that at least the parts of the printed sheets, which are located opposite the printing form-free printing device (8, 17, 18; 29-35), are electrostatically attracted by the sheet-guiding cylinder (2, 40), characterized in that, in sheet running direction, the charging device, which is embodied as ionization device, is arranged downstream from a printing gap, which is formed by means of a press-on device, which is embodied as pressure roller, blanket cylinder, rubber cylinder, plate cylinder or pressure roller and the sheet-guiding cylinder (2, 40), and upstream of the printing form-free printing device (8, 30-32), across from the surface of the sheet-guiding cylinder (2, 40).
A device for the detachable fastening of a drying agent cartridge to a housing section of a compressed-air treatment installation of a vehicle, in particular of a utility vehicle, wherein the drying agent cartridge has a cartridge housing with a cover, which delimits the cartridge housing in an upward direction, and with a carrier element (3; 30) which delimits the cartridge housing in a downward direction and which, in an installed position, is detachably fastened to the housing section of the compressed-air treatment installation, wherein the device comprises: a thread, which is arranged on the carrier element, and a counterpart thread, which is arranged on the housing section, for the screw connection of the drying agent cartridge to the housing section; a compressed and/or compressible sealing element, which is arranged between the carrier element (3; 30) and the housing section, for sealing off the carrier element on the housing section with respect to said housing section, characterized in that the sealing element is arranged in a seal groove of the housing section and, via a fluidic connection which fluidically connects the seal groove to a pressurizable housing chamber of the compressed-air treatment installation, can be acted on with a system pressure of the compressed-air treatment installation in order to generate and/or increase the axial compression of the sealing element between the carrier element (3; 30) and the housing section. a thread, which is arranged on the carrier element, and a counterpart thread, which is arranged on the housing section, for the screw connection of the drying agent cartridge to the housing section; a compressed and/or compressible sealing element, which is arranged between the carrier element (3; 30) and the housing section, for sealing off the carrier element on the housing section with respect to said housing section, characterized in that the sealing element is arranged in a seal groove of the housing section and, via a fluidic connection which fluidically connects the seal groove to a pressurizable housing chamber of the compressed-air treatment installation, can be acted on with a system pressure of the compressed-air treatment installation in order to generate and/or increase the axial compression of the sealing element between the carrier element (3; 30) and the housing section.
A rail vehicle having a vehicle frame which is supported on on-track undercarriages and mobile on rails of a track, comprising a first measuring platform with a first inertial measuring system for recording a track course and a first spatial curve, characterized in that a second measuring platform is arranged on the rail vehicle, comprising a second inertial measuring system for recording a second spatial curve and at least one sensor device for recording surface points of a track section, wherein the movement of the sensor device in the three-dimensional space is recorded by means of the second inertial measuring system.
A foam material comprising: a polyurethane foam matrix defining a plurality of pores, the polyurethane foam matrix being 50 to 70% by weight of the foam material; a hydrophilic agent retained within at least a portion of the pores for improving an absorption of the foam material, the hydrophilic agent being 1 to 20% by weight of the foam material; a physiologic salt retained within at least a portion of the pores in an amount sufficient to render the foam material isotonic, the salt being 0.1 to 5% by weight of the foam material; and a surfactant retained within at least a portion of the pores in an amount sufficient to be released upon contact with a moist surface, the surfactant being 5 to 9% by weight of the foam material; and water, wherein the water is 8 to 12% by weight of the foam material, and wherein a first surface of the foam material comprises an embossed or debossed pattern formed thereon. a polyurethane foam matrix defining a plurality of pores, the polyurethane foam matrix being 50 to 70% by weight of the foam material; a hydrophilic agent retained within at least a portion of the pores for improving an absorption of the foam material, the hydrophilic agent being 1 to 20% by weight of the foam material; a physiologic salt retained within at least a portion of the pores in an amount sufficient to render the foam material isotonic, the salt being 0.1 to 5% by weight of the foam material; and a surfactant retained within at least a portion of the pores in an amount sufficient to be released upon contact with a moist surface, the surfactant being 5 to 9% by weight of the foam material; and water, wherein the water is 8 to 12% by weight of the foam material, and wherein a first surface of the foam material comprises an embossed or debossed pattern formed thereon.
A mounting system for securing a container to a bed of a vehicle, the system comprising: a mounting bracket having a length dimension and being adjustable in the length dimension, the mounting bracket having a first end portion and a second end portion in the length dimension, the second end portion having at least one foot portion (24e, 24f) for engaging a floor surface of the bed; a first connection joint for attaching the first end portion of the mounting bracket to a sidewall of the bed; and a second connection joint for attaching a central portion of the mounting bracket to the container; wherein the bracket is adjustable to a length dimension sufficient to engage the foot portion (24e, 24f) of the bracket to the bottom surface of the bed, while the bracket is attached to the side wall of the bed through the first connection joint; wherein the mounting bracket comprises a plurality of bracket sections that are arranged adjacent to each other and slidable relative to each other in the length dimension of the mounting bracket, to adjust the length dimension of the mounting bracket; characterised in that the plurality of bracket sections include first, second and third bracket sections, the first bracket section has the first end portion, the third bracket section has the second end portion, and the second bracket section is between the first bracket section and the third bracket section and has the central portion. a mounting bracket having a length dimension and being adjustable in the length dimension, the mounting bracket having a first end portion and a second end portion in the length dimension, the second end portion having at least one foot portion (24e, 24f) for engaging a floor surface of the bed; a first connection joint for attaching the first end portion of the mounting bracket to a sidewall of the bed; and a second connection joint for attaching a central portion of the mounting bracket to the container; wherein the bracket is adjustable to a length dimension sufficient to engage the foot portion (24e, 24f) of the bracket to the bottom surface of the bed, while the bracket is attached to the side wall of the bed through the first connection joint; wherein the mounting bracket comprises a plurality of bracket sections that are arranged adjacent to each other and slidable relative to each other in the length dimension of the mounting bracket, to adjust the length dimension of the mounting bracket; characterised in that the plurality of bracket sections include first, second and third bracket sections, the first bracket section has the first end portion, the third bracket section has the second end portion, and the second bracket section is between the first bracket section and the third bracket section and has the central portion.
Method for preparing activated carbon, the method comprising the steps of - providing the starting material in the form of pure natural wood, wherein the composition of the starting material comprises 35-45% by weight of coniferous wood and 55-65% by weight of hardwood, - comminution of the starting material into pieces of maximum edge length of 45 mm, - drying of the starting material to a water content of maximum 20% by weight, - pyrolysis of the dried pieces of the starting material in a reactor under exclusion of oxygen to produce biochar, - quenching of the biochar after the pyrolysis by addition of water, wherein the pyrolysis is carried out in the temperature range of 720°C to 800°C and wherein the residence time in the reactor is at least 60 minutes, in particular wherein the residence time in the reactor is between 60 and 80 minutes, wherein, as last step, the biochar is grinded to a particle size of at most 3 mm, in particular less than 1 mm, wherein, in a further step, the ground biochar is oxidically activated in a fluidized bed reactor. - providing the starting material in the form of pure natural wood, wherein the composition of the starting material comprises 35-45% by weight of coniferous wood and 55-65% by weight of hardwood, - comminution of the starting material into pieces of maximum edge length of 45 mm, - drying of the starting material to a water content of maximum 20% by weight, - pyrolysis of the dried pieces of the starting material in a reactor under exclusion of oxygen to produce biochar, - quenching of the biochar after the pyrolysis by addition of water,
A measurement system for determining a frequency response of a device under test, wherein the measurement system comprises - a signal source that is configured to provide a repetitive signal with a repetition frequency, - an analog to digital converter that is configured to convert the repetitive signal into digital samples by using a sampling rate, - a numerically controlled oscillator and a mixing stage, wherein the numerically controlled oscillator and the mixing stage together are configured to frequency-shift the samples, - a periodic averaging circuit that is located downstream of the numerically controlled oscillator and the mixing stage, wherein the periodic averaging circuit is configured to sum or average the samples obtained over a defined number of buffer lengths, thereby providing at least one output signal, wherein the buffer length is derived from the repetition frequency and the sampling rate, wherein the buffer length relates to an integer multiple of the period length of the repetitive signal, - a processing circuit that is configured to perform a Fourier transform on the at least one output signal, thereby converting the at least one output signal to frequency domain, and wherein the numerically controlled oscillator together with the mixing stage are configured to shift the frequency of the samples such that picket signal portions of the at least one output signal, namely the samples contained in the output signal provided by the periodic averaging circuit, are shifted to an intermediate frequency of zero, thereby ensuring that the picket signal portions, processed by the processing circuit, are associated with frequency bins in the frequency domain. - a signal source that is configured to provide a repetitive signal with a repetition frequency, - an analog to digital converter that is configured to convert the repetitive signal into digital samples by using a sampling rate, - a numerically controlled oscillator and a mixing stage, wherein the numerically controlled oscillator and the mixing stage together are configured to frequency-shift the samples, - a periodic averaging circuit that is located downstream of the numerically controlled oscillator and the mixing stage, wherein the periodic averaging circuit is configured to sum or average the samples obtained over a defined number of buffer lengths, thereby providing at least one output signal, wherein the buffer length is derived from the repetition frequency and the sampling rate, wherein the buffer length relates to an integer multiple of the period length of the repetitive signal, - a processing circuit that is configured to perform a Fourier transform on the at least one output signal, thereby converting the at least one output signal to frequency domain, and
An aluminium cradle, intended to equip a vehicle and including a crossmember extending along a transverse direction and comprising two ends which are opposite with respect to one another and at each of which there are fixedly secured i) an extruded front anchoring part along said transverse direction and including two vertical walls provided with holes defining an anchoring point, along a longitudinal direction perpendicular to said transverse direction, for the anchoring of a front part of a wheel carrier, and ii) a rear extension including two horizontal wings provided with holes defining another anchoring point, along a vertical direction, for the anchoring of a rear part of said wheel carrier, characterized in that at least one of said vertical walls of each front anchoring part and said horizontal wings of each rear extension include respectively first and second guiding means, guiding respectively said front parts and rear parts of the corresponding wheel carrier during their respective positionings with respect to said anchoring points (PA1, PA3).
A submersible pump assembly with an electric drive motor and with a control device for the control of the drive motor, which are designed for submerging into a fluid to be delivered, as well as an external display device and/or an external communication device which are designed for the arrangement outside the fluid to be delivered and are connected to the control device for signal transmission, characterised in that the external display device and/or the external communication device are connected to the control device via an electric cable which is separate from the mains cable for the drive motor, wherein the control device as well as the display device and/or the communication device are designed in a manner such that a data transfer is effected via the electric cable in the manner of a data transmission via powerline-communication.
An imaging apparatus which captures an optical interference tomographic image based on a combined beam that combines a return beam from an object irradiated by a measuring beam and a reference beam corresponding to the measuring beam, the imaging apparatus comprising: a beam diameter changing unit configured to change a beam diameter of the measuring beam; a detection unit (450, 550) comprising an opto-electric conversion element array (439, 539) and a spectroscopic unit (441, 541) configured to separate the combined beam into each wavelength; and an acquiring unit configured to acquire an optical interference tomographic image of the object, characterized by: a range changing unit comprising a zooming lens ( 435-2, 435-3, 535-2, 535-3) configured to change a range on which the separated beam is to be irradiated on the opto-electric conversion element array (439, 539) based on the beam diameter of the measuring beam, wherein the detection unit ( 450, 550) is configured to detect a light from the range changing unit by the opto-electric conversion element array (439, 539), and wherein the acquiring unit is configured to acquire the optical interference tomographic image of the object based on an output signal of the range from the detection unit. a beam diameter changing unit configured to change a beam diameter of the measuring beam; a detection unit (450, 550) comprising an opto-electric conversion element array (439, 539) and a spectroscopic unit (441, 541) configured to separate the combined beam into each wavelength; and an acquiring unit configured to acquire an optical interference tomographic image of the object, a range changing unit comprising a zooming lens ( 435-2, 435-3, 535-2, 535-3) configured to change a range on which the separated beam is to be irradiated on the opto-electric conversion element array (439, 539) based on the beam diameter of the measuring beam, wherein the detection unit ( 450, 550) is configured to detect a light from the range changing unit by the opto-electric conversion element array (439, 539), and wherein the acquiring unit is configured to acquire the optical interference tomographic image of the object based on an output signal of the range from the detection unit.
Assembly for a turbine engine, the assembly comprising: an axis of rotation of the turbine engine; an outer casing (28; 128; 228) of a compressor (4; 6) with an annular wall (30; 130; 230) having an inner circular surface delimiting a primary flow-path of the compressor (4; 6); and a tank (46; 146; 246) for a liquid, with an inner circular chamber (48; 148; 248) extending around the axis of rotation, the wall (30; 130; 230) including an outer circular surface delimiting the inner chamber (48; 148; 248) of the tank (46; 146; 246); characterized in that the casing (28; 128; 228) comprises a fixing annular flange positioned upstream, and axially spaced, from the tank (46; 146; 246), the flange radially extending from the annular wall (30; 130; 230), and the flange and the tank (46; 146; 246) being axially separated from each other by a distance that is at least equal to the axial dimension of the tank (46; 146; 246).
A method comprising: identifying, by a server, a network event in response to the server receiving a request, from a client device, to renew an assignment of a network address previously assigned to the client device; in response to identifying the network event, triggering a determination of whether to update software installed on the client device; identifying a software update for the software in response to the determination; and communicating a software update message comprising the software update to cause updating of the software. identifying, by a server, a network event in response to the server receiving a request, from a client device, to renew an assignment of a network address previously assigned to the client device; in response to identifying the network event, triggering a determination of whether to update software installed on the client device; identifying a software update for the software in response to the determination; and communicating a software update message comprising the software update to cause updating of the software.
A system comprising a portable metal working robot system and a control system, the portable metal working robot system comprising: - a metal working tool configured to perform a metal working process on one or more metal parts; - communication circuitry configured to receive control signals from the control system located remotely from the portable metal working robot system; and - control circuitry configured to control operational parameters of the portable metal working robot system in accordance with the received control signals, the control system comprising: - one or more display devices - one or more control devices (28, 130) configured to be manipulated by an operator; - control circuitry; and - communication circuitry configured to receive one or more inputs of the one or more control devices (28, 130), and to transmit control signals to the remotely located portable metal working robot system, wherein the control signals are based at least in part on the one or more inputs of the one or more control devices (28, 130), characterized in that the portable metal working robot system comprises a video capture system configured to capture video data of the metal working tool, the metal working process, and an environment proximate the metal parts, and that the control system uses said video data to construct a virtual reality representation or an augmented reality representation of a metal working process being performed on one or more metal parts, and that the one or more display devices are configured to display the virtual reality representation or an augmented reality representation of the metal working process being performed on the one or more metal parts. - a metal working tool configured to perform a metal working process on one or more metal parts; - communication circuitry configured to receive control signals from the control system located remotely from the portable metal working robot system; and - control circuitry configured to control operational parameters of the portable metal working robot system in accordance with the received control signals, - one or more display devices - one or more control devices (28, 130) configured to be manipulated by an operator; - control circuitry; and - communication circuitry configured to receive one or more inputs of the one or more control devices (28, 130), and to transmit control signals to the remotely located portable metal working robot system, wherein the control signals are based at least in part on the one or more inputs of the one or more control devices (28, 130),
A method comprising: acquiring tows of fiber; selecting a number of tows to utilize for a bundle having an aggregate shape; assembling the tows together into the bundle; inducing slip planes between the tows of the bundle by applying different amounts of tension to each of the tows; drawing the bundle through a die to bind the bundle into a preform, enforcing a longitudinally varying cross section along the preform; and locking in a curvature of the preform, the curvature being defined by the different amounts of tension. acquiring tows of fiber; selecting a number of tows to utilize for a bundle having an aggregate shape; assembling the tows together into the bundle; inducing slip planes between the tows of the bundle by applying different amounts of tension to each of the tows; drawing the bundle through a die to bind the bundle into a preform, enforcing a longitudinally varying cross section along the preform; and locking in a curvature of the preform, the curvature being defined by the different amounts of tension.