mhurhangee/ep-ind-claims huggingface dataset:
Modular system for controlling electrical equipment units on an offshore structure comprising - an explosion proof housing comprising a panel door for closing the housing; characterised by - at least one controller module mountable in the housing, wherein a single controller module is arranged for individually and autonomously controlling a single electrical equipment unit; wherein the housing comprises an operating module arranged for operating the at least one controller module and for providing status indication of the at least one controller module. - an explosion proof housing comprising a panel door for closing the housing; characterised by - at least one controller module mountable in the housing, wherein a single controller module is arranged for individually and autonomously controlling a single electrical equipment unit; wherein the housing comprises an operating module arranged for operating the at least one controller module and for providing status indication of the at least one controller module. - at least one controller module mountable in the housing, wherein a single controller module is arranged for individually and autonomously controlling a single electrical equipment unit;
A fluid-activatable liner-free label comprising a label substrate, an adhesive layer and a barrier layer, wherein the adhesive layer is on top of the label substrate and the barrier layer is on top of the adhesive layer.
A method of cleaning a silicon photoconductor comprising: contacting the silicon photoconductor with a base-peroxide solution; wherein contacting the silicon photoconductor with a base-peroxide solution comprises transferring the silicon photoconductor from an electrophotographic printing device to a cleaning station rinsing the silicon photoconductor with a liquid; and heating the silicon photoconductor to evaporate the liquid, characterized in that heating the silicon photoconductor comprises: transferring the silicon photoconductor back from the cleaning station to the electrophotographic printing device; heat cycling the silicon photoconductor in the electrophotographic printing device up to an evaporation temperature within the range of 90°C to 250°C; wherein the heat cycling comprises increasing the temperature of the silicon photoconductor at least once. contacting the silicon photoconductor with a base-peroxide solution; wherein contacting the silicon photoconductor with a base-peroxide solution comprises transferring the silicon photoconductor from an electrophotographic printing device to a cleaning station rinsing the silicon photoconductor with a liquid; and heating the silicon photoconductor to evaporate the liquid, characterized in that heating the silicon photoconductor comprises: transferring the silicon photoconductor back from the cleaning station to the electrophotographic printing device; heat cycling the silicon photoconductor in the electrophotographic printing device up to an evaporation temperature within the range of 90°C to 250°C; wherein the heat cycling comprises increasing the temperature of the silicon photoconductor at least once. transferring the silicon photoconductor back from the cleaning station to the electrophotographic printing device; heat cycling the silicon photoconductor in the electrophotographic printing device up to an evaporation temperature within the range of 90°C to 250°C; wherein the heat cycling comprises increasing the temperature of the silicon photoconductor at least once.
A can steel plate comprising: equal to or less than 0.0030% by mass of C; equal to or less than 0.02% by mass of Si; 0.05% to 0.60% by mass of Mn; equal to or less than 0.020% by mass of P; equal to or less than 0.020% by mass of S; 0.010% to 0.100% by mass of Al; 0.0010% to 0.0050% by mass of N; 0.001% to 0.050% by mass of Nb; optionally 0.001% to 0.050% by mass of Ti and balance Fe and inevitable impurities, wherein an intensity of orientation (where -2 represents 2 with a bar in Miller indices) and an intensity of orientation (where -1 represents 1 with a bar in Miller indices) satisfy the following equation, and in a rolling direction and a 90° direction from the rolling direction in a horizontal plane, a tensile strength TS (MPa) and a fracture elongation El (%) satisfy relations of the following equation and equation. Intensity of 111 1 − 21 orientation / Intensity of 111 1 − 10 orientation ≥ 0.9 TS ≥ 550 El > − 0.02 × TS + 17.5 equal to or less than 0.0030% by mass of C; equal to or less than 0.02% by mass of Si; 0.05% to 0.60% by mass of Mn; equal to or less than 0.020% by mass of P; equal to or less than 0.020% by mass of S; 0.010% to 0.100% by mass of Al; 0.0010% to 0.0050% by mass of N; 0.001% to 0.050% by mass of Nb; optionally 0.001% to 0.050% by mass of Ti and balance Fe and inevitable impurities, wherein an intensity of orientation (where -2 represents 2 with a bar in Miller indices) and an intensity of orientation (where -1 represents 1 with a bar in Miller indices) satisfy the following equation, and in a rolling direction and a 90° direction from the rolling direction in a horizontal plane, a tensile strength TS (MPa) and a fracture elongation El (%) satisfy relations of the following equation and equation. Intensity of 111 1 − 21 orientation / Intensity of 111 1 − 10 orientation ≥ 0.9 TS ≥ 550 El > − 0.02 × TS + 17.5
Ramp ring for a ramp system of an adjusting device for adjusting a wear-induced faulty spacing between a counter-plate and a pressing plate of a friction clutch, having a sliding ramp for sliding on a counter-ramp in order to adjust the faulty spacing, and a holding ramp which points axially away from the sliding ramp for bearing against a holding stop which is connected directly or indirectly to the counter-ramp in order to limit an axial lift-off of the ramp ring from the pressing plate, a ramp gradient of the holding ramp corresponding to a ramp gradient of the sliding ramp.
A scanning device for imaging a beam (1.1) along a scan line, comprising a light source which emits the beam (1.1) with an axial ray (1.1.1), a scanning unit with a polygon mirror (2.1), as well as prescan optics arranged upstream of the polygon mirror (2.1) in the direction of the axial ray (1.1.1) and prescan optics arranged downstream of the polygon mirror (2.1) in the direction of the axial ray (1.1.1), with an optical axis (4.0), the prescan optics being arranged upstream of the polygon mirror (2.1) in such a way that the beam (1.1) impinges on the polygon mirror (2.1) in a cross scan plane at an angle of incidence (a), characterized in that the optical axis (4.0) of the postscan optics is arranged in the reflection direction of the polygon mirror (2.1), the postscan optics comprise, arranged successively in the direction of the axial ray (1.1.1), a corrective objective (4.1) with at least a first corrective lens (4.1.1) and a second corrective lens (4.1.2), only one cylindrical mirror (4.2) and one cylindrical lens (4.3), the cylindrical mirror (4.2) is tilted at a first tilt angle (β) with respect to the surface normal of the polygon mirror (2.1) in the cross scan plane, said tilt angle (β) being determined by the angle of incidence (a), and one of the two corrective lenses (4.1.1, 4.1.2) is tilted relative to the optical axis (4.0) of the postscan optics at a second tilt angle (γ) and is offset with respect to the optical axis (4.0) by a distance (a). the postscan optics comprise, arranged successively in the direction of the axial ray (1.1.1), a corrective objective (4.1) with at least a first corrective lens (4.1.1) and a second corrective lens (4.1.2), only one cylindrical mirror (4.2) and one cylindrical lens (4.3), the cylindrical mirror (4.2) is tilted at a first tilt angle (β) with respect to the surface normal of the polygon mirror (2.1) in the cross scan plane, said tilt angle (β) being determined by the angle of incidence (a), and one of the two corrective lenses (4.1.1, 4.1.2) is tilted relative to the optical axis (4.0) of the postscan optics at a second tilt angle (γ) and is offset with respect to the optical axis (4.0) by a distance (a).
An apparatus comprising: a first input node; a first termination resistor coupled to the first input node and a reference node; a second input node, wherein the first and second inputs nodes are to receive a differential input signal; a second termination resistor coupled to the second input node and the reference node; an amplifier to receive first and second signals from the first and second input nodes, respectively; a multiplexer coupled to the amplifier, the multiplexer to alternatively pass a Failover Clock or a Local Tx Clock signals for use when the primary clock is unavailable, wherein the clock signal at the multiplexer output is provided to downstream clock distribution circuitry and is fed back through a low-pass filter to a comparator coupled to the multiplexer, the comparator to receive a differential output of the amplifier and to provide an amplified output; a digital offset cancellation circuit coupled to the comparator and the amplifier, wherein the digital offset cancellation circuit is to compensate offset in the differential input signal at an input of the amplifier, an oversampled, control circuit coupled between the comparator and the digital offset cancellation circuit, the control circuit, in cooperation with the comparator, controlling the digital offset cancellation circuit by a digital correction code value based on the offset in the differential input signal, wherein the digital offset cancellation circuit is to compensate the offset by adjusting current strengths of the differential input signal at the input of the amplifier. a first input node; a first termination resistor coupled to the first input node and a reference node; a second input node, wherein the first and second inputs nodes are to receive a differential input signal; a second termination resistor coupled to the second input node and the reference node; an amplifier to receive first and second signals from the first and second input nodes, respectively; a multiplexer coupled to the amplifier, the multiplexer to alternatively pass a Failover Clock or a Local Tx Clock signals for use when the primary clock is unavailable, wherein the clock signal at the multiplexer output is provided to downstream clock distribution circuitry and is fed back through a low-pass filter to a comparator coupled to the multiplexer, the comparator to receive a differential output of the amplifier and to provide an amplified output; a digital offset cancellation circuit coupled to the comparator and the amplifier, wherein the digital offset cancellation circuit is to compensate offset in the differential input signal at an input of the amplifier, an oversampled, control circuit coupled between the comparator and the digital offset cancellation circuit, the control circuit, in cooperation with the comparator, controlling the digital offset cancellation circuit by a digital correction code value based on the offset in the differential input signal, wherein the digital offset cancellation circuit is to compensate the offset by adjusting current strengths of the differential input signal at the input of the amplifier.
A method for manufacturing a part comprising aluminum, characterized in that it comprises a step for selective laser sintering of a mixture comprising: - a polymer powder, - a powder of a quasi-crystalline aluminum alloy, and - a powder of a filler compound forming a contact angle with a drop of polymer placed on its surface smaller than 90° and having a thermal conductivity at 20°C of less than 100 W/m.K, the sum of the weight of the alloy and the weight of the filler compound not exceeding 80% of the total weight of the mixture. - a polymer powder, - a powder of a quasi-crystalline aluminum alloy, and - a powder of a filler compound forming a contact angle with a drop of polymer placed on its surface smaller than 90° and having a thermal conductivity at 20°C of less than 100 W/m.K,
A method for decomposing struvite, comprising the steps of: - dissolving a feed material comprising struvite in HCl forming an acid solution; - removing phosphorus from said acid solution, forming a phosphorus-depleted solution; - forming a neutralized solution by adding a base to said phosphorus-depleted solution; and - forming a chloride salt solution from said neutralized solution. - dissolving a feed material comprising struvite in HCl forming an acid solution; - removing phosphorus from said acid solution, forming a phosphorus-depleted solution; - forming a neutralized solution by adding a base to said phosphorus-depleted solution; and - forming a chloride salt solution from said neutralized solution.
A method of forming a component for a gas turbine engine, comprising: forming a first portion of the component using one of a casting and a forging process, the first portion including a root, platform, and at least one radial support (80A-80D) projecting from the platform; additively manufacturing a second portion (70, 72) of the component; joining the second portion (70, 72) to the first portion; additively manufacturing a third portion (70, 72) of the component; and joining the third portion (70, 72) to the first portion, wherein: the second portion (70, 72) and the third portion (70, 72) provide pressure and suction side walls of the component; and the at least one radial support (80A-80D) includes a plurality of radial supports (80A-80D), each of the radial supports including a first rib (88A-88D, 96A-96D) and a second rib (88A-88D, 96A-96D) projecting into slots (86A-86D, 94A-94D) formed in the second portion (70, 72) and the third portion (70, 72). forming a first portion of the component using one of a casting and a forging process, the first portion including a root, platform, and at least one radial support (80A-80D) projecting from the platform; additively manufacturing a second portion (70, 72) of the component; joining the second portion (70, 72) to the first portion; additively manufacturing a third portion (70, 72) of the component; and joining the third portion (70, 72) to the first portion, wherein: the second portion (70, 72) and the third portion (70, 72) provide pressure and suction side walls of the component; and the at least one radial support (80A-80D) includes a plurality of radial supports (80A-80D), each of the radial supports including a first rib (88A-88D, 96A-96D) and a second rib (88A-88D, 96A-96D) projecting into slots (86A-86D, 94A-94D) formed in the second portion (70, 72) and the third portion (70, 72). the second portion (70, 72) and the third portion (70, 72) provide pressure and suction side walls of the component; and the at least one radial support (80A-80D) includes a plurality of radial supports (80A-80D), each of the radial supports including a first rib (88A-88D, 96A-96D) and a second rib (88A-88D, 96A-96D) projecting into slots (86A-86D, 94A-94D) formed in the second portion (70, 72) and the third portion (70, 72).
An antibody specifically binding to claudin 18A2, wherein the antibody is selected from the group consisting of: an antibody, wherein: - the CDR1, CDR2 and CDR3 regions of the heavy chain variable region of the antibody are SEQ ID NO: 49, SEQ ID NO: 85, SEQ ID NO: 51, and the CDR1, CDR2 and CDR3 regions of the light chain variable region of the antibody are SEQ ID NO: 52, SEQ ID NO: 53, SEQ ID NO: 54; or - the antibody preferably is: - an antibody having a heavy chain variable region of SEQ ID NO: 27 and a light chain variable region of SEQ ID NO: 25; or - an antibody having a heavy chain variable region of SEQ ID NO: 29 and a light chain variable region of SEQ ID NO: 25; or - wherein the antibody is a humanized antibody selected from the group consisting of an antibody having a heavy chain of SEQ ID NO: 63 and a light chain of SEQ ID NO: 65, and an antibody having a heavy chain of SEQ ID NO: 67 and a light chain of SEQ ID NO: 65. - the CDR1, CDR2 and CDR3 regions of the heavy chain variable region of the antibody are SEQ ID NO: 49, SEQ ID NO: 85, SEQ ID NO: 51, and the CDR1, CDR2 and CDR3 regions of the light chain variable region of the antibody are SEQ ID NO: 52, SEQ ID NO: 53, SEQ ID NO: 54; or - the antibody preferably is: - an antibody having a heavy chain variable region of SEQ ID NO: 27 and a light chain variable region of SEQ ID NO: 25; or - an antibody having a heavy chain variable region of SEQ ID NO: 29 and a light chain variable region of SEQ ID NO: 25; or - an antibody having a heavy chain variable region of SEQ ID NO: 27 and a light chain variable region of SEQ ID NO: 25; or - an antibody having a heavy chain variable region of SEQ ID NO: 29 and a light chain variable region of SEQ ID NO: 25; or - wherein the antibody is a humanized antibody selected from the group consisting of an antibody having a heavy chain of SEQ ID NO: 63 and a light chain of SEQ ID NO: 65, and an antibody having a heavy chain of SEQ ID NO: 67 and a light chain of SEQ ID NO: 65.
Sanding block for manual use, in particular for manually sanding surfaces, having at least one base plate for holding an abrasive article, and at least one sanding block body having a grip region, characterized in that integrated into the sanding block is an accumulator-battery-operated means for suctioning-off sanding dust, which comprises at least one dust box, a motor housing, in which there is provided a drive motor having an impeller wheel, and an accumulator battery for mains-independent supply of electric power to the drive motor.
Method for locating a track-bound vehicle in a route network following a start-up of the vehicle, characterised in that for locating purposes, • at least one camera is used, which acquires an image of the vehicle and of at least one fixed optical marker (OM1, OM2), the absolute position of which in the route network is known, • a relative vehicle position of the vehicle with respect to the fixed optical marker (OM1, OM2) in the image is determined, • the absolute vehicle position of the vehicle in the route network is determined, taking into account the absolute position of the marker and the relative position of the vehicle. • at least one camera is used, which acquires an image of the vehicle and of at least one fixed optical marker (OM1, OM2), the absolute position of which in the route network is known, • a relative vehicle position of the vehicle with respect to the fixed optical marker (OM1, OM2) in the image is determined, • the absolute vehicle position of the vehicle in the route network is determined, taking into account the absolute position of the marker and the relative position of the vehicle.
An axle end arrangement, in particular for use in utility vehicles, having a stator unit and a rotor unit, wherein the stator unit can be fixed in a secured manner against rotation about a stub axle relative to an axle stub, wherein the rotor unit can be fixed indirectly or directly on a hub, wherein the stator unit has a coil arrangement, in which, upon rotation of the rotor unit, a voltage is generated, wherein the rotor unit has a first rotor element and a second rotor element, wherein the first rotor element can be fixed on the hub, wherein the second rotor element is mounted within the first rotor element and is arranged within the coil arrangement, wherein the first rotor element has a flange portion, wherein the flange portion has recesses for the engagement of fastening means which can be brought into engagement with the hub, wherein the first rotor element forms a housing jointly with the hub, and wherein the stator unit and the second rotor element are arranged within the housing, characterized in that the rotor unit has a maximum outer radius (R 4) measured perpendicular to the stub axle, which outer radius (R 4) is smaller than the smallest distance (R 72) of a fastening region for a vehicle wheel on the hub from the stub axle,.
A field device (1, 1a, 1b) for measuring at least one process quantity in an industrial production process, comprising • at least one sensor for measuring the process quantity, • at least one primary communication interface that is configured for transmitting measurement values of the sensor, • at least one microcontroller or an embedded system for controlling the recording of measurement values with the sensor, based on a firmware stored in a program memory, • a further memory for an updated version of the firmware, and/or a receptacle for such a further memory, as well as • an updating logic that is configured to: after receiving the updated version of the firmware into the further memory and a later meeting of at least one activation condition set by the user of the field device (1, 1a, 1b), cause the microcontroller, respectively the embedded system, to use the updated version of the firmware, characterized in that the updating logic is configured to check a condition that is dependent on a measurement value of the sensor as activation condition. • at least one sensor for measuring the process quantity, • at least one primary communication interface that is configured for transmitting measurement values of the sensor, • at least one microcontroller or an embedded system for controlling the recording of measurement values with the sensor, based on a firmware stored in a program memory, • a further memory for an updated version of the firmware, and/or a receptacle for such a further memory, as well as • an updating logic that is configured to: after receiving the updated version of the firmware into the further memory and a later meeting of at least one activation condition set by the user of the field device (1, 1a, 1b), cause the microcontroller, respectively the embedded system, to use the updated version of the firmware,
A method used by a user equipment (110, 120, 700) for maintaining system state synchronization between a fixed network of a communication system and the user equipment comprises: receiving a message from a network station of the communication system while the user equipment is in a connected state; determining that the message is a control message received on a signaling channel; identifying that the message is a message specified for use during connection establishment or connection re-establishment; and switching the user equipment to an idle state; wherein the communication system is a 3GPP LTE system, and wherein the message is one of an RRCConnectionReject message, an RRCConnectionSetupmessage, and an RRCConnectionReestablishment message. receiving a message from a network station of the communication system while the user equipment is in a connected state; determining that the message is a control message received on a signaling channel; identifying that the message is a message specified for use during connection establishment or connection re-establishment; and switching the user equipment to an idle state; wherein the communication system is a 3GPP LTE system, and wherein the message is one of an RRCConnectionReject message, an RRCConnectionSetupmessage, and an RRCConnectionReestablishment message.
Agricultural implement in the form of a mounted tractor plough, with a headstock, which comprises lower and upper link articulation points (6; 19) for three-point attachment to a tractor, wherein the lower link articulation points on the headstock body are mounted pivotally about an upright steering axis for steering the headstock relative to the tractor in working operation and a centring and/or locking device is provided for centring and/or locking the lower link articulation points with respect to the steering axis in transport and/or headland operation, characterised in that the centring and/or locking device has an actuator for adjusting the lower link articulation points towards a centring contour of the headstock and, working automatically depending on the raising of the implement into the transport and/or headland position, is configured such that the lower link articulation points move towards the centring contour upon raising and are released in working operation.