mhurhangee/ep-ind-claims huggingface dataset:
A laser scanner in accordance with the time of flight principle having a first light transmitter which transmits consecutive first light pulses into a measured zone and having - a first light receiver which receives the light pulses reflected at an object in the measured zone and supplies them in the form of received electrical signals to an evaluation unit; - which determines a distance signal representative of the distance of the object from the laser scanner while taking account of the speed of light from the time between the transmission and the reception of the light pulse; - and a light deflection unit which is arranged between the first light transmitter and the measured zone and which deflects the light pulses in continuously changing directions into the measured zone, characterized in that - a second light transmitter is present which, in comparison with the first light transmitter, transmits consecutive second light pulses having a reduced power into a near zone; - a second light receiver is arranged which is configured to receive the second light pulses reflected from the near zone; - and supplies the second light pulses reflected at an object in the near zone in the form of received electrical signals to the evaluation unit, - wherein the second light transmitter and the second light receiver form a near zone sensor; - and wherein the second light receiver has at least one single photon avalanche diode. - a first light receiver which receives the light pulses reflected at an object in the measured zone and supplies them in the form of received electrical signals to an evaluation unit; - which determines a distance signal representative of the distance of the object from the laser scanner while taking account of the speed of light from the time between the transmission and the reception of the light pulse; - and a light deflection unit which is arranged between the first light transmitter and the measured zone and which deflects the light pulses in continuously changing directions into the measured zone, - a second light transmitter is present which, in comparison with the first light transmitter, transmits consecutive second light pulses having a reduced power into a near zone; - a second light receiver is arranged which is configured to receive the second light pulses reflected from the near zone; - and supplies the second light pulses reflected at an object in the near zone in the form of received electrical signals to the evaluation unit, - wherein the second light transmitter and the second light receiver form a near zone sensor; - and wherein the second light receiver has at least one single photon avalanche diode.
An electrical box for engaging through an opening formed in a wall, said electrical box comprising: • a rear body that includes a side wall made of rigid material, and that is centered on a central axis, and at least one snap-fastener tab that is adapted to catch onto the wall; and • a front collar including a shoulder made of rigid material that extends outwards, projecting relative to said side wall; the electrical box being characterized in that the rear body and the front collar are disjoint and connected together by a peripheral band made of flexible material that is elastically deformable along the central axis. • a rear body that includes a side wall made of rigid material, and that is centered on a central axis, and at least one snap-fastener tab that is adapted to catch onto the wall; and • a front collar including a shoulder made of rigid material that extends outwards, projecting relative to said side wall;
A method of aligning a laser with a flow stream, the method comprising: irradiating a flow stream with a laser through a single wedged window; detecting light signals from the laser irradiated flow stream; and aligning the laser with the flow stream by spatially adjusting the single wedged window in response to the detected light signal, wherein spatially adjusting the wedged window comprises adjusting an angle of orientation of the wedged window with respect to the laser thereby changing an angle of laser beam deviation provided by the wedged window. irradiating a flow stream with a laser through a single wedged window; detecting light signals from the laser irradiated flow stream; and aligning the laser with the flow stream by spatially adjusting the single wedged window in response to the detected light signal, wherein spatially adjusting the wedged window comprises adjusting an angle of orientation of the wedged window with respect to the laser thereby changing an angle of laser beam deviation provided by the wedged window.
An apparatus comprising: a chamber; a target supply for supplying a target material to a region inside the chamber; a laser apparatus generating a laser beam; a focusing optical system (5, 15) for focusing the laser beam on the region; and an intensity control optical system for controlling an intensity distribution of the laser beam so that the laser beam has a substantially uniform intensity distribution region of a cross-section perpendicular to a traveling path of the laser beam, and the area of the uniform intensity distribution region is larger than the maximum cross-section of the target material, characterized in that the laser apparatus includes the intensity control optical system for generating the laser beam having the uniform intensity distribution region. a chamber; a target supply for supplying a target material to a region inside the chamber; a laser apparatus generating a laser beam; a focusing optical system (5, 15) for focusing the laser beam on the region; and an intensity control optical system for controlling an intensity distribution of the laser beam so that the laser beam has a substantially uniform intensity distribution region of a cross-section perpendicular to a traveling path of the laser beam, and the area of the uniform intensity distribution region is larger than the maximum cross-section of the target material, characterized in that the laser apparatus includes the intensity control optical system for generating the laser beam having the uniform intensity distribution region.
A computer-implemented method for executing multiple applications simultaneously on a physical processing unit using multithreading by hosting multiple logical processing units, the method comprising: assigning a first application to a first logical processing unit hosted on a physical processing unit, wherein the physical processing unit hosts the first logical processing unit and at least one other logical processing unit; providing a set of enclave entry instructions for the first logical processing unit to execute, to cause the first logical processing unit to enter an enclave in the first processing unit when a predefined entering condition is satisfied, wherein the predefined entering condition is satisfied when all logical processing units (102A, 102B) hosted on the physical processing unit are loaded with applications and all loaded applications are declared as trusted by the first application, according to a first trust declaration of the first application, the first trust declaration declaring applications trusted by the first application; and providing a set of enclave exit instructions for the first logical processing unit to execute, to cause the first logical processing unit to exit the enclave when a predefined exiting condition is satisfied. assigning a first application to a first logical processing unit hosted on a physical processing unit, wherein the physical processing unit hosts the first logical processing unit and at least one other logical processing unit; providing a set of enclave entry instructions for the first logical processing unit to execute, to cause the first logical processing unit to enter an enclave in the first processing unit when a predefined entering condition is satisfied, wherein the predefined entering condition is satisfied when all logical processing units (102A, 102B) hosted on the physical processing unit are loaded with applications and all loaded applications are declared as trusted by the first application, according to a first trust declaration of the first application, the first trust declaration declaring applications trusted by the first application; and providing a set of enclave exit instructions for the first logical processing unit to execute, to cause the first logical processing unit to exit the enclave when a predefined exiting condition is satisfied.
A method of managing binding information, on behalf of a Mobile Node, at a Home Agent in a Mobile IP network, the method comprising: maintaining a record of Correspondent Binding Reception and Correspondent Binding Registration at said Home Agent, the Correspondent Binding Reception record comprising a Home Address of the Mobile Node and a Care-of-Address of a Correspondent Node, and the Correspondent Binding Reception record comprising an IP address of the Correspondent Node and security credentials authenticating that the Home Agent can act on behalf of the Mobile Node; in the event of the Home Agent receiving a Binding Update message on behalf of the Mobile Node, updating the Care of address of the Correspondent Node in the Correspondent Binding Reception record; and in the event of the Home Agent sending a Binding Update message on behalf of the Mobile Node, sending the Binding Update message using the security credentials stored in the Correspondent Binding Reception record. maintaining a record of Correspondent Binding Reception and Correspondent Binding Registration at said Home Agent, the Correspondent Binding Reception record comprising a Home Address of the Mobile Node and a Care-of-Address of a Correspondent Node, and the Correspondent Binding Reception record comprising an IP address of the Correspondent Node and security credentials authenticating that the Home Agent can act on behalf of the Mobile Node; in the event of the Home Agent receiving a Binding Update message on behalf of the Mobile Node, updating the Care of address of the Correspondent Node in the Correspondent Binding Reception record; and in the event of the Home Agent sending a Binding Update message on behalf of the Mobile Node, sending the Binding Update message using the security credentials stored in the Correspondent Binding Reception record.
A manufacturing device for a field-pole magnet configured to form a groove through laser beam machining on one face of a base magnet, break the base magnet at the groove to obtain a plurality of magnet pieces, align the magnet pieces in a line on a plane via a gap filled with an adhesive or a resin, and apply a pushing force onto the aligned magnet pieces at least in a direction perpendicular to the plane to form a one-piece field pole magnet, the device comprising: a support member configured to support a face on the opposite side of the aligned magnet pieces to the groove on the plane; and a pushing member configured to push the face of the aligned magnet pieces on which the groove is formed towards the support member, wherein the pushing member comprises a plurality of pushing parts each of which is configured to push each of the aligned magnet pieces, and the support member is formed in the shape of a pair of parallel beams configured to support each of the aligned magnet pieces at positions opposing the pushing parts. a support member configured to support a face on the opposite side of the aligned magnet pieces to the groove on the plane; and a pushing member configured to push the face of the aligned magnet pieces on which the groove is formed towards the support member, wherein the pushing member comprises a plurality of pushing parts each of which is configured to push each of the aligned magnet pieces, and the support member is formed in the shape of a pair of parallel beams configured to support each of the aligned magnet pieces at positions opposing the pushing parts.
A computer-implemented method, comprising: obtaining a first reflection pressure signal at a first acoustic sensor device arranged at a first location in a conduit, the first reflection signal being based on a pressure pulse being reflected acoustically from a deposition to the first acoustic sensor device in a first direction; determining by inversion a representation of a first deposition estimation in the conduit from the obtained first reflection signal; obtaining a second reflection pressure signal at a second acoustic sensor device arranged at a second location in the conduit, the second reflection signal being based on the pressure pulse being reflected acoustically from the deposition to the second acoustic sensor device in a second direction opposite the first direction; determining by inversion a representation of a second deposition estimation in the conduit from the obtained second reflection signal, wherein said representations measure the amount of deposition as a function of distance in the conduit; determining an overlap estimation between the representation of the first deposition estimation and the representation of the second deposition estimation; and generating a representation of a deposition in the conduit from the determined overlap estimation, wherein said representation indicates a location of the deposition within the conduit and a thickness of the deposition. obtaining a first reflection pressure signal at a first acoustic sensor device arranged at a first location in a conduit, the first reflection signal being based on a pressure pulse being reflected acoustically from a deposition to the first acoustic sensor device in a first direction; determining by inversion a representation of a first deposition estimation in the conduit from the obtained first reflection signal; obtaining a second reflection pressure signal at a second acoustic sensor device arranged at a second location in the conduit, the second reflection signal being based on the pressure pulse being reflected acoustically from the deposition to the second acoustic sensor device in a second direction opposite the first direction; determining by inversion a representation of a second deposition estimation in the conduit from the obtained second reflection signal, wherein said representations measure the amount of deposition as a function of distance in the conduit; determining an overlap estimation between the representation of the first deposition estimation and the representation of the second deposition estimation; and generating a representation of a deposition in the conduit from the determined overlap estimation, wherein said representation indicates a location of the deposition within the conduit and a thickness of the deposition.
A method for secure communication between Vehicle to Everything, V2X, terminals, performed by a second V2X terminal, comprising: receiving a first message broadcasted by a first V2X terminal, the first message being encrypted by a V2X communication key of the first V2X terminal, and acquiring a terminal identifier and a service identifier of the first V2X terminal by parsing the first message, in response to the second V2X terminal driving in a communication range of the first V2X terminal; acquiring the V2X communication key of the first V2X terminal from a V2X service platform, and saving the V2X communication key of the first V2X terminal; decrypting and parsing the first message by using the V2X communication key of the first V2X terminal to acquire a content of the first message; and removing the V2X communication key of the first V2X terminal, in response to the second V2X terminal driving out of the communication range of the first V2X terminal, wherein the V2X communication key being generated by the V2X service platform, and saved correspondingly with the terminal identifier and the service identifier of the first V2X terminal for communication between the first V2X terminal and other V2X terminal, and different V2X terminals use different V2X communication keys to communicate. receiving a first message broadcasted by a first V2X terminal, the first message being encrypted by a V2X communication key of the first V2X terminal, and acquiring a terminal identifier and a service identifier of the first V2X terminal by parsing the first message, in response to the second V2X terminal driving in a communication range of the first V2X terminal; acquiring the V2X communication key of the first V2X terminal from a V2X service platform, and saving the V2X communication key of the first V2X terminal; decrypting and parsing the first message by using the V2X communication key of the first V2X terminal to acquire a content of the first message; and removing the V2X communication key of the first V2X terminal, in response to the second V2X terminal driving out of the communication range of the first V2X terminal, wherein the V2X communication key being generated by the V2X service platform, and saved correspondingly with the terminal identifier and the service identifier of the first V2X terminal for communication between the first V2X terminal and other V2X terminal, and different V2X terminals use different V2X communication keys to communicate.
A magnetic pole for magnetic levitation vehicles with a core comprising a central axis and a winding (10, 35, 36) applied to the core, wherein the winding (10, 35, 36) contains two discs (11, 12) spaced apart in direction of the central axis, wherein the discs (11, 12) are formed from two conduction band sections (21a, 21b) wound around the core in several layers, characterised in that the discs (11, 12) are formed with an opposite winding sense, wherein the conduction band sections (21a, 21b), at the ends proximate to the core, are electroconductively connected to each other by a central connecting section determining the axial distance (a) of the two discs (11, 12) and the winding sense of the two conduction band sections (21a, 21b), and in that the winding is made from a continuous, one-piece conduction band of essentially continuously the same width ( b), wherein the axial distance ( a) of the two discs (11, 12) is determined by folding in the area of the connecting section.
An agricultural system, comprising: a header with a frame; a cutter bar assembly, flexible along a width of the header 200 and configured to move along a vertical axis relative to the frame during an operation of the agricultural system; a reel assembly configured to guide crops to the cutter bar assembly during the operation of the agricultural system; and characterized by a controller configured to: receive feedback indicative of a profile of the cutter bar assembly; set a position boundary of the reel assembly based on the feedback; and block movement of the reel assembly to a position beyond the position boundary of the reel assembly. a header with a frame; a cutter bar assembly, flexible along a width of the header 200 and configured to move along a vertical axis relative to the frame during an operation of the agricultural system; a reel assembly configured to guide crops to the cutter bar assembly during the operation of the agricultural system; and characterized by a controller configured to: receive feedback indicative of a profile of the cutter bar assembly; set a position boundary of the reel assembly based on the feedback; and block movement of the reel assembly to a position beyond the position boundary of the reel assembly. receive feedback indicative of a profile of the cutter bar assembly; set a position boundary of the reel assembly based on the feedback; and block movement of the reel assembly to a position beyond the position boundary of the reel assembly.
Closable inspection opening for dry construction, comprising a board that is provided with holes and has an opening and a cover provided with holes for covering the opening, wherein the board has an opening edge delimiting the opening, and the cover has a cover edge characterized in that the holes provided in the board and in the cover are arranged in a manner to be spaced from the opening edge and the cover edge.
A total knee prosthesis comprising a femoral implant forming two condylian portions which reproduce the femoral condyles, and a tibial implant comprising an intermediate plate forming glenoid surfaces for receiving the condylian portions and comprising a median protuberance; - said condylian portions have a curved shape both in the sagittal plane and in the transverse plane and the intermediate plate has raised anterior, lateral and posterior edges at the periphery of the glenoid surfaces, said condylian portions and the glenoid surfaces being congruent, i.e. fitting together two by two over the whole of the movement of the joint or over the major portion of this movement; - said protuberance is elongated in the antero-posterior direction, and extends over the whole of the antero-posterior dimension of the intermediate plate; it has a posterior boss with a convex upper face in the sagittal plane, which plunges down towards the central area of the protuberance, and an anterior portion with a concave upper face in the sagittal plane which emerges from this same central area, said central area thus having a recess continuously connected to the posterior boss, while forming a smooth transition with the upper face of the latter; characterized in that: - the femoral implant comprises an anterior inter-condylian wall forming a lower inter-condylian edge; and - said recess is located so that in an extension or hyperextension of the joint, said lower inter-condylian edge is immediately below it, or slightly engaged on the anterior portion of the posterior boss. - said condylian portions have a curved shape both in the sagittal plane and in the transverse plane and the intermediate plate has raised anterior, lateral and posterior edges at the periphery of the glenoid surfaces, said condylian portions and the glenoid surfaces being congruent, i.e. fitting together two by two over the whole of the movement of the joint or over the major portion of this movement; - said protuberance is elongated in the antero-posterior direction, and extends over the whole of the antero-posterior dimension of the intermediate plate; it has a posterior boss with a convex upper face in the sagittal plane, which plunges down towards the central area of the protuberance, and an anterior portion with a concave upper face in the sagittal plane which emerges from this same central area, said central area thus having a recess continuously connected to the posterior boss, while forming a smooth transition with the upper face of the latter; - the femoral implant comprises an anterior inter-condylian wall forming a lower inter-condylian edge; and - said recess is located so that in an extension or hyperextension of the joint, said lower inter-condylian edge is immediately below it, or slightly engaged on the anterior portion of the posterior boss.
A method for treating a semiconductor substrate having a pattern disposed on a surface of the substrate, comprising: contacting the surface with a surface treatment composition, wherein the surface treatment composition comprises at least one aprotic solvent, and at least one surface treatment agent, the at least one surface treatment agent comprises a Si-containing compound, and the surface treatment composition forms a surface treatment layer on the surface such that the surface has a water contact angle of at least about 50 degrees; wherein the pattern comprises a feature having a dimension of at most about 20 nm, characterised in that the at least one aprotic solvent comprises a siloxane. contacting the surface with a surface treatment composition, wherein the surface treatment composition comprises at least one aprotic solvent, and at least one surface treatment agent, the at least one surface treatment agent comprises a Si-containing compound, and the surface treatment composition forms a surface treatment layer on the surface such that the surface has a water contact angle of at least about 50 degrees; wherein the pattern comprises a feature having a dimension of at most about 20 nm, characterised in that the at least one aprotic solvent comprises a siloxane.