mhurhangee/patent-ind-claim-en huggingface dataset:
An apparatus to execute an auxiliary recipe and a batch recipe in a process control system, the apparatus comprising: a recipe interface to obtain the auxiliary recipe during execution of the batch recipe, wherein the batch recipe is associated with a first recipe identifier and the auxiliary recipe is associated with a second recipe identifier equal to the first recipe identifier, a resource manager to identify equipment reserved for the batch recipe based on the first recipe identifier and to facilitate use of the equipment by the auxiliary recipe based on the second recipe identifier being equal to the first recipe identifier; and an operating mode selector to pause, during the production of a batch, and without ending execution of the batch recipe, the execution of the batch recipe prior to the execution of the auxiliary recipe; cause execution of the auxiliary recipe, wherein the auxiliary recipe is to use the equipment reserved for the batch recipe based on the resource manager identifying the equipment based on the first and second recipe identifiers; and re-activate the batch recipe, after the auxiliary recipe completes execution, to complete production of the same batch. a recipe interface to obtain the auxiliary recipe during execution of the batch recipe, wherein the batch recipe is associated with a first recipe identifier and the auxiliary recipe is associated with a second recipe identifier equal to the first recipe identifier, a resource manager to identify equipment reserved for the batch recipe based on the first recipe identifier and to facilitate use of the equipment by the auxiliary recipe based on the second recipe identifier being equal to the first recipe identifier; and an operating mode selector to pause, during the production of a batch, and without ending execution of the batch recipe, the execution of the batch recipe prior to the execution of the auxiliary recipe; cause execution of the auxiliary recipe, wherein the auxiliary recipe is to use the equipment reserved for the batch recipe based on the resource manager identifying the equipment based on the first and second recipe identifiers; and re-activate the batch recipe, after the auxiliary recipe completes execution, to complete production of the same batch.
A solar roof panel system for laying on an inclined surface, preferably on a roof having a roof ridge and a roof eaves, with at least two roof panels having an upper side and an underside and with a solar module extending over the upper sides of the roof panels and attachable thereto, wherein a profiled rail is provided which connects the roof panels to one another and which has at least one module holder for holding an edge of the solar module , preferably an edge of the solar module facing the roof eaves or the roof ridge, wherein the module holder is formed from a bracket section and an support section , wherein the profile rail has at least one roof panel holder formed as a profile clamp with plurality of folded edges for holding at least one of the roof panels , wherein the roof panels have a clamp section which can be embraced by the profile clamp , and wherein the support section is adjoined by a securing section in the form of one of the plurality of folded edges , which serves to engage behind the clamp section of the roof panel .
A sheet package comprising: a sheet roll (SR) in which a sheet (ST) is wound in a circumferential direction of a cylindrical core (PT); and a packaging bag (FB) in which the sheet roll is stored, wherein at least one end surface of the sheet roll in a roll width direction faces a top surface of the packaging bag, the cylindrical core has an opening (OP) in which an end edge (TE) of the sheet roll on a side of the one end surface is open, and a first slit overlapping the opening of the cylindrical core is formed on the top surface, characterized in that at least a part of the first slit overlaps a center part (OC) of the opening, and the first slit includes: one U-shaped linear slit in which two end portions extend from said part toward the same side surface of side surfaces of the packaging bag; or three straight line-shaped linear slits radially extending from said part , in which directions extending from said part to three end portions are different from one another, and the directions extending from said part to two end portions of said three end portions extend toward the same side surface of side surfaces of the packaging bag. a sheet roll (SR) in which a sheet (ST) is wound in a circumferential direction of a cylindrical core (PT); and a packaging bag (FB) in which the sheet roll is stored, wherein at least one end surface of the sheet roll in a roll width direction faces a top surface of the packaging bag, the cylindrical core has an opening (OP) in which an end edge (TE) of the sheet roll on a side of the one end surface is open, and a first slit overlapping the opening of the cylindrical core is formed on the top surface, characterized in that at least a part of the first slit overlaps a center part (OC) of the opening, and the first slit includes: one U-shaped linear slit in which two end portions extend from said part toward the same side surface of side surfaces of the packaging bag; or three straight line-shaped linear slits radially extending from said part , in which directions extending from said part to three end portions are different from one another, and the directions extending from said part to two end portions of said three end portions extend toward the same side surface of side surfaces of the packaging bag. one U-shaped linear slit in which two end portions extend from said part toward the same side surface of side surfaces of the packaging bag; or three straight line-shaped linear slits radially extending from said part , in which directions extending from said part to three end portions are different from one another, and the directions extending from said part to two end portions of said three end portions extend toward the same side surface of side surfaces of the packaging bag.
Method for operating a multitude of serially cascaded wavefront modulators , - which are arranged within a beam path and are jointly generating an output wavefront Z o that is modeled as a superposition of N fundamental orthonormal modes, and - wherein each of the wavefront modulators is configured to modulate a number of m i of the N modes of the output wavefront Z o , characterized in that - a first control signal c 1 for controlling a first one of the wavefront modulators is calculated from a target wavefront Z t and independently of a second control signal c 2 for controlling a second of the wavefront modulators, - a response Z 1s of the first wavefront modulator to the first control signal c 1 is estimated and subtracted from the target wavefront Z t to yield a first residual wavefront Z R1 , - the second control signal c 2 is calculated from the residual wavefront Z R1 , and - the control signals c 1 , c 2 are simultaneously applied to the respective modulators to jointly generate the output wavefront Z o . - which are arranged within a beam path and are jointly generating an output wavefront Z o that is modeled as a superposition of N fundamental orthonormal modes, and - wherein each of the wavefront modulators is configured to modulate a number of m i of the N modes of the output wavefront Z o , characterized in that - a first control signal c 1 for controlling a first one of the wavefront modulators is calculated from a target wavefront Z t and independently of a second control signal c 2 for controlling a second of the wavefront modulators, - a response Z 1s of the first wavefront modulator to the first control signal c 1 is estimated and subtracted from the target wavefront Z t to yield a first residual wavefront Z R1 , - the second control signal c 2 is calculated from the residual wavefront Z R1 , and - the control signals c 1 , c 2 are simultaneously applied to the respective modulators to jointly generate the output wavefront Z o .
A monitoring system for endoscopic treatments, in particular for use in en-dourological interventions, comprising an evaluation unit and a guidewire , which comprises at least one measuring device , wherein the evaluation unit is adapted to receiving data of the at least one measuring device and to monitoring the ambient conditions in a treatment zone, characterized in that the evaluation unit comprises a plurality of comparison values, and that the evaluation unit comprises a comparator, which is adapted to comparing the data with the plurality of comparison values to determine whether the ambient conditions lie within an unfavorable range, and that at least one of the comparison values is a relative value, which relates to a starting pressure level which prevails in the corresponding treatment zone prior to the start of the treatment, and that the evaluation unit comprises an input unit which is adapted to adjust the plurality of comparison values.
A vehicle alignment system for aligning a vehicle with a ground side wireless power induction coil for wireless charging through use of magnetic resonant induction, comprising: a transmission line configured to be disposed at least one of: along a centerline of a parking slot , parallel to but offset from the centerline of the parking slot, or along a curved trajectory so as to guide the vehicle to the wireless power induction coil for charging, the transmission line leaking a signal having an operating frequency; at least two vehicle mounted antennas configured to be mounted on opposite sides of the transmission line when the vehicle is aligned in the parking slot or moving along the curved trajectory, said antennas detecting said signal having said operating frequency that leaks from the transmission line; and signal processing circuitry configured to detect a relative signal phase between signals detected by the antennas on opposite sides of the transmission line, wherein relative phase differences between the detected signals from the antennas are representative of alignment of the vehicle left-right with respect to the transmission line . a transmission line configured to be disposed at least one of: along a centerline of a parking slot , parallel to but offset from the centerline of the parking slot, or along a curved trajectory so as to guide the vehicle to the wireless power induction coil for charging, the transmission line leaking a signal having an operating frequency; along a centerline of a parking slot , parallel to but offset from the centerline of the parking slot, or along a curved trajectory at least two vehicle mounted antennas configured to be mounted on opposite sides of the transmission line when the vehicle is aligned in the parking slot or moving along the curved trajectory, said antennas detecting said signal having said operating frequency that leaks from the transmission line; and signal processing circuitry configured to detect a relative signal phase between signals detected by the antennas on opposite sides of the transmission line, wherein relative phase differences between the detected signals from the antennas are representative of alignment of the vehicle left-right with respect to the transmission line .
Nozzle head for cleaning the inside of a glass element with a fluid, the nozzle head comprising: at least one cleaning opening for releasing at least one part of the fluid and pointing in a first direction (R1); and at least one pressure balancing opening for releasing at least one part of the fluid and pointing in a second direction (R2); at least one feeding opening for feeding the nozzle head with the fluid and pointing in a third direction (R3); wherein two half spaces, a first one (H1) and a second one (H2), are separated by a plane (P) which is perpendicular to the center axis (A) of the nozzle head, and wherein the first direction vector of the first direction points in a direction towards the first half space and/or away from the second half space; wherein the second direction vector of the second direction is parallel to the center axis and points in a direction towards the second half space and/or away from the first half space. at least one cleaning opening for releasing at least one part of the fluid and pointing in a first direction (R1); and at least one pressure balancing opening for releasing at least one part of the fluid and pointing in a second direction (R2); at least one feeding opening for feeding the nozzle head with the fluid and pointing in a third direction (R3); wherein two half spaces, a first one (H1) and a second one (H2), are separated by a plane (P) which is perpendicular to the center axis (A) of the nozzle head, and wherein the first direction vector of the first direction points in a direction towards the first half space and/or away from the second half space; wherein the second direction vector of the second direction is parallel to the center axis and points in a direction towards the second half space and/or away from the first half space.
A touch screen-integrated display device, comprising: a substrate including an active area including a plurality of subpixels and a non-active area, wherein the active area is where an image is displayed and the non-active area is disposed outside the active area along the circumference of the active area; a gate line and a data line to define one subpixel; a thin-film transistor disposed in the subpixel of the active area; a passivation layer disposed on the thin-film transistor and having an opening (P0) in the non-active area; a signal supply pad disposed in the opening (P0); a line pad disposed in the opening (P0) and on a protective layer covering the signal supply pad; a pad connection layer configured to connect the line pad through at least one first contact hole (C1) and the signal supply pad through at least one second contact hole (C2) in the opening (P0); a first electrode disposed on the passivation layer and connected to a source electrode of the thin-film transistor through a fourth contact hole (C4), the protective layer disposed on the first electrode; a second electrode disposed on the protective layer to overlap the first electrode; and a touch sensing line parallel with the data line. a substrate including an active area including a plurality of subpixels and a non-active area, wherein the active area is where an image is displayed and the non-active area is disposed outside the active area along the circumference of the active area; a gate line and a data line to define one subpixel; a thin-film transistor disposed in the subpixel of the active area; a passivation layer disposed on the thin-film transistor and having an opening (P0) in the non-active area; a signal supply pad disposed in the opening (P0); a line pad disposed in the opening (P0) and on a protective layer covering the signal supply pad; a pad connection layer configured to connect the line pad through at least one first contact hole (C1) and the signal supply pad through at least one second contact hole (C2) in the opening (P0); a first electrode disposed on the passivation layer and connected to a source electrode of the thin-film transistor through a fourth contact hole (C4), the protective layer disposed on the first electrode; a second electrode disposed on the protective layer to overlap the first electrode; and a touch sensing line parallel with the data line.
Cable assembly comprising a number of cables (2 1 - 2 n ) which are grouped together and each consist of at least one transmission line and a surrounding cable sheath, wherein the cable assembly is designed to be rolled up on a cable drum at the manufacturer's, for the cables (2 i -2 n ) to be laid at one and the same time, characterized in that the cables (2 1 - 2 n ) are joined together directly to form the cable assembly by means of a number of strip-like embracing elements (3, 3', 3") which surround the cables (2 i -2 n ) and are kept at a distance from one another in the longitudinal direction (x) of the cable assembly , to be precise they are joined together in such a way that, with respect to a respective section of the cable assembly unrolled from the cable drum during laying, each of the cables (2 1 - 2 n ) is movable, within the strip-like embracing elements (3, 3', 3") which surround the cables (2 1 - 2 n ), in the longitudinal direction (x) in relation to these embracing elements (3, 3', 3") and in relation to the other cables (2 1 - 2 n ) in each case of the cable assembly and, as a result, can be removed from the cable assembly by way of a clearance, existing in the cable assembly because of the distances between the strip-like embracing elements (3, 3', 3"), to create a cable branch.
A cycloidal gear reducer comprising an input shaft , mounted in rotation in a reducer casing according to an axis called « main axis » (ZZ'), an eccentric member carried by the input shaft and driven in rotation by the latter, at least one cycloidal disk which is mounted in rotation on said eccentric member and which is provided with a cycloidal toothing , at least one rim provided with a receiving toothing on which the cycloidal toothing of the cycloidal disk meshes, and an output shaft , distinct from the input shaft , which is arranged so as to be driven in rotation by the cycloidal disk , said reducer being characterized in that it comprises a suspension device which is arranged to elastically bias the cycloidal toothing of the cycloidal disk and the receiving toothing of the rim against each other, so as to provide an automatic adjustment of the backlash between said cycloidal disk and said rim according to at least one component radial to the main axis (ZZ'), and in that it includes two reduction stages , including a first reduction stage , which comprises the eccentric member , a first cycloidal disk , called « input disk », which is mounted in rotation on said eccentric member and which is provided with a first cycloidal toothing , as well as a first rim , called « input rim », which is secured to the reducer casing and which is provided with a first cycloidal receiving toothing on which the first cycloidal toothing of the input disk meshes, and a second reduction stage , which comprises a second cycloidal disk , called « output disk », which is secured in rotation to the input disk , and which is provided with a second cycloidal toothing , said second reduction stage also comprising a second rim , called « output rim », which is distinct from the input rim, which is secured in rotation to the output shaft, and which is provided with a second cycloidal receiving toothing on which the second cycloidal toothing of the output disk meshes, and in that the first reduction stage comprises a first suspension device which provides at least one radial elastic adjustment of the backlash between the input disk and the input rim , whereas the second reduction stage comprises a second suspension device , distinct from the first suspension device , and which provides at least one radial elastic adjustment of the backlash between the output disk and the output rim .
A compressor structure, comprising: a housing; a rotor impeller , being an axial flow impeller; a secondary impeller , being a centrifugal impeller; and a stator blade , being an axial flow blade comprising a blade body and being positioned in between the rotor impeller and the secondary impeller , the compressor structure being configured to allow the output gas flow from the rotor impeller to pass through the stator blade into the secondary impeller, characterized in that : a cavity is formed inside the blade body , and a gas supply hole is formed on the blade body ; a gas supply passage is formed on the housing in communication with the cavity of the stator blade ; a diffuser is provided at the output side of the secondary impeller ; and a diffuser vane is provided in diffuser flow passage of the diffuser. a housing; a rotor impeller , being an axial flow impeller; a secondary impeller , being a centrifugal impeller; and a stator blade , being an axial flow blade comprising a blade body and being positioned in between the rotor impeller and the secondary impeller , the compressor structure being configured to allow the output gas flow from the rotor impeller to pass through the stator blade into the secondary impeller, characterized in that : a cavity is formed inside the blade body , and a gas supply hole is formed on the blade body ; a gas supply passage is formed on the housing in communication with the cavity of the stator blade ; a diffuser is provided at the output side of the secondary impeller ; and a diffuser vane is provided in diffuser flow passage of the diffuser. a cavity is formed inside the blade body , and a gas supply hole is formed on the blade body ; a gas supply passage is formed on the housing in communication with the cavity of the stator blade ; a diffuser is provided at the output side of the secondary impeller ; and a diffuser vane is provided in diffuser flow passage of the diffuser.
A method of manufacturing an asphalt mixture consisting of bitumen, dried aggregates and undried recycled material, wherein the aggregates and recycled material are added to the bitumen, wherein the weight ratio of bitumen, aggregates and recycled material is determined by weighing the aggregates during the mixing process, wherein the respective mass G (m)(t) of the individual aggregates is determined by a mineral scale, wherein a sudden pressure increase is produced by the sudden evaporation of the water contained in the undried or partially dried recycling material characterised in that a continuous pressure measurement of the sudden pressure increase is carried out below the mineral scale and a pressure difference p ( u,i )( t ) - p ( o,i )( t ) is determined therefrom, wherein the pressure difference is determined to determine a correction value G ( k )( t ) for the weighing of the aggregates and an effective weighing parameter G ( eff ) is calculated therefrom according to the formula G eff → = G m t → + G k t → = G m t → + k A ∗ ∑ i p u i t − p o i t ̅ ∗ e z → , wherein the weighing of the aggregates during the mixing process is performed with the calculated effective weighing parameter. wherein the aggregates and recycled material are added to the bitumen, wherein the weight ratio of bitumen, aggregates and recycled material is determined by weighing the aggregates during the mixing process, wherein the respective mass G (m)(t) of the individual aggregates is determined by a mineral scale, wherein a sudden pressure increase is produced by the sudden evaporation of the water contained in the undried or partially dried recycling material characterised in that a continuous pressure measurement of the sudden pressure increase is carried out below the mineral scale and a pressure difference p ( u,i )( t ) - p ( o,i )( t ) is determined therefrom, wherein the pressure difference is determined to determine a correction value G ( k )( t ) for the weighing of the aggregates and an effective weighing parameter G ( eff ) is calculated therefrom according to the formula G eff → = G m t → + G k t → = G m t → + k A ∗ ∑ i p u i t − p o i t ̅ ∗ e z → , wherein the weighing of the aggregates during the mixing process is performed with the calculated effective weighing parameter.