mhurhangee/ep-ind-claims huggingface dataset:
An automotive vehicle (102, 202, 302, 402) with a storage compartment, comprising: a cabin (108, 208); a set of rear wheels located behind the cabin; a cargo space (118, 218); and a closable integrated storage compartment assembly located adjacent to the cabin, rearward of a rear-most seat of the automotive vehicle, and forward of the set of rear wheels, at least a portion of the closable integrated storage compartment being positioned forward of a forward wall of the cargo space, comprising: at least one sidewall (125, 225, 325) enclosing an interior portion of the storage compartment and extending from a first side panel at a first side of the automotive vehicle toward a second side of the automotive vehicle, a first opening (128, 228, 328, 428) to the storage compartment at the first side of the automotive vehicle, and a first door at the first opening, wherein the first door comprises a first, fixed step member characterized in that the first door further comprises a second step member hingedly attached to the first step member, wherein the first step member has a weight-bearing horizontal step surface when the first door is open and wherein the first step member comprises a step surface when the second step member is open. a cabin (108, 208); a set of rear wheels located behind the cabin; a cargo space (118, 218); and a closable integrated storage compartment assembly located adjacent to the cabin, rearward of a rear-most seat of the automotive vehicle, and forward of the set of rear wheels, at least a portion of the closable integrated storage compartment being positioned forward of a forward wall of the cargo space, comprising: at least one sidewall (125, 225, 325) enclosing an interior portion of the storage compartment and extending from a first side panel at a first side of the automotive vehicle toward a second side of the automotive vehicle, a first opening (128, 228, 328, 428) to the storage compartment at the first side of the automotive vehicle, and a first door at the first opening, wherein the first door comprises a first, fixed step member characterized in that the first door further comprises a second step member hingedly attached to the first step member, wherein the first step member has a weight-bearing horizontal step surface when the first door is open and wherein the first step member comprises a step surface when the second step member is open. at least one sidewall (125, 225, 325) enclosing an interior portion of the storage compartment and extending from a first side panel at a first side of the automotive vehicle toward a second side of the automotive vehicle, a first opening (128, 228, 328, 428) to the storage compartment at the first side of the automotive vehicle, and a first door at the first opening, wherein the first door comprises a first, fixed step member characterized in that the first door further comprises a second step member hingedly attached to the first step member, wherein the first step member has a weight-bearing horizontal step surface when the first door is open and wherein the first step member comprises a step surface when the second step member is open.
A method for taking pictures, in particular wide-angled pictures or 360o panorama pictures with a brightness sensor with a multitude of brightness sensor pixels arranged in at least one column, wherein each of the brightness sensor pixels emits a message in the form of a signal both in the case of exceedance detected by it of a preset upper as well as in the case of a shortfall detected by it of this preset lower brightness threshold of the light detected by it, characterized in a) that the captured area of the brightness sensor is rotated or periodically pivoted in relation to the scene to be captured, whereby the light of each of the same areas of the scene to be pictured in each case encounter s or is pictured on the same brightness sensor pixel at periodic time intervals, b) that picture points of an overall picture of the scene are detected from the messages, while the line number of the brightness sensor pixel generating a respective message and the time of the generation of the respective message are established and the line number of the brightness sensor pixel generating a message and the time of the generation of the respective message or a parameter derived from this time are consulted as coordinates of the picture point assigned to the message, and c) that the overall picture of the scene is generated based on the arriving messages as well as the picture points assigned to these messages, while these picture points are depicted differently in relation to the background of the overall picture, in particular standing out in color. a) that the captured area of the brightness sensor is rotated or periodically pivoted in relation to the scene to be captured, whereby the light of each of the same areas of the scene to be pictured in each case encounter s or is pictured on the same brightness sensor pixel at periodic time intervals, b) that picture points of an overall picture of the scene are detected from the messages, while the line number of the brightness sensor pixel generating a respective message and the time of the generation of the respective message are established and the line number of the brightness sensor pixel generating a message and the time of the generation of the respective message or a parameter derived from this time are consulted as coordinates of the picture point assigned to the message, and c) that the overall picture of the scene is generated based on the arriving messages as well as the picture points assigned to these messages, while these picture points are depicted differently in relation to the background of the overall picture, in particular standing out in color.
A computing device comprising: a central processing unit, wherein the central processing unit is configured to execute a native operating system including one or more native runtime environments within which one or more native software applications are executing, where each such native software application has instructions for execution under the native operating system, one or more hosted runtime environments are configured to be executed within the one or more of native runtime environments, where each of the hosted runtime environments is configured to execute hosted software applications (34, 36) that have instructions for execution under a hosted operating system that differs from the native operating system, characterized in that a first hosted software application executing within a first process of the hosted runtime environments includes an instruction that references a member, the referenced member, (35A, 353, 35C) of an object defined by an object-oriented programming, OOP, class, the referenced class, wherein the referenced member is any of a method member and a data member, the first process is configured to execute that instruction utilizing a data and/or code member, the substitute member, (35A', 353', 350) other than that specified by the referenced class as the referenced member, and a class loader is provided that is configured to substitute, into the first hosted software application, a reference made by said instruction to the referenced member with reference to the substitute member. a central processing unit, wherein the central processing unit is configured to execute a native operating system including one or more native runtime environments within which one or more native software applications are executing, where each such native software application has instructions for execution under the native operating system, one or more hosted runtime environments are configured to be executed within the one or more of native runtime environments, where each of the hosted runtime environments is configured to execute hosted software applications (34, 36) that have instructions for execution under a hosted operating system that differs from the native operating system, characterized in that a first hosted software application executing within a first process of the hosted runtime environments includes an instruction that references a member, the referenced member, (35A, 353, 35C) of an object defined by an object-oriented programming, OOP, class, the referenced class, wherein the referenced member is any of a method member and a data member, the first process is configured to execute that instruction utilizing a data and/or code member, the substitute member, (35A', 353', 350) other than that specified by the referenced class as the referenced member, and a class loader is provided that is configured to substitute, into the first hosted software application, a reference made by said instruction to the referenced member with reference to the substitute member.
Configuration method intended to be implemented in a network comprising a plurality of devices and using a dynamic routing protocol, this configuration method comprising: - a step (E40, E80), carried out by a first device (T11, T21) of the network, of receiving a first command message (CMD, M1) comprising configuration elements required to activate the dynamic routing protocol in the network so as to operationalize use thereof in the network; - a step (E50, E90), carried out by the first device, of configuring session establishment parameters in accordance with said protocol that are used by the first device, based on configuration elements contained in the first message; and - if the configuration elements contained in the first message comprise at least one instruction for managing sessions in accordance with said protocol in the network, a step (E60, E110), carried out by the first device, of executing said at least one management instruction; - the method being characterized in that it comprises, if the configuration elements contained in the first message comprise a directive to propagate the configuration elements in the network, a step (E70, E120), carried out by the first device in accordance with said propagation directive, of sending at least one second command message (M1, M2) to at least one second device (T21, T31) of the network, this second command message comprising all or some of the configuration elements contained in the first message. - a step (E40, E80), carried out by a first device (T11, T21) of the network, of receiving a first command message (CMD, M1) comprising configuration elements required to activate the dynamic routing protocol in the network so as to operationalize use thereof in the network; - a step (E50, E90), carried out by the first device, of configuring session establishment parameters in accordance with said protocol that are used by the first device, based on configuration elements contained in the first message; and - if the configuration elements contained in the first message comprise at least one instruction for managing sessions in accordance with said protocol in the network, a step (E60, E110), carried out by the first device, of executing said at least one management instruction; - the method being characterized in that it comprises, if the configuration elements contained in the first message comprise a directive to propagate the configuration elements in the network, a step (E70, E120), carried out by the first device in accordance with said propagation directive, of sending at least one second command message (M1, M2) to at least one second device (T21, T31) of the network, this second command message comprising all or some of the configuration elements contained in the first message.
A method for transmitting uplink demodulation reference signal, performed by a terminal device supporting multiple types of demodulation reference signal, DMRS, sequences, the method comprising: receiving, by the terminal device, first DMRS configuration information sent by a network device, the first DMRS configuration information indicating a type of a DMRS sequence; receiving, by the terminal device, second DMRS configuration information sent by the network device, the second DMRS configuration information indicating at least one of an antenna port configuration of DMRS and a physical resource configuration of DMRS; determining, by the terminal device, a configuration parameter indicated by the second DMRS configuration information according to the first DMRS configuration information; determining, by the terminal device, a transmission parameter of DMRS according to the configuration parameter indicated by the second DMRS configuration information; and transmitting, by the terminal device, DMRS to the network device according to the transmission parameter. receiving, by the terminal device, first DMRS configuration information sent by a network device, the first DMRS configuration information indicating a type of a DMRS sequence; receiving, by the terminal device, second DMRS configuration information sent by the network device, the second DMRS configuration information indicating at least one of an antenna port configuration of DMRS and a physical resource configuration of DMRS; determining, by the terminal device, a configuration parameter indicated by the second DMRS configuration information according to the first DMRS configuration information; determining, by the terminal device, a transmission parameter of DMRS according to the configuration parameter indicated by the second DMRS configuration information; and transmitting, by the terminal device, DMRS to the network device according to the transmission parameter.
Processing device (10; 20) with a processing head, the processing head comprising a processing unit designed as a tool and/or applicator unit, in particular a printer unit, and a first positioning device for moving the processing head in order to position the processing unit with a first accuracy at a specified processing position, wherein the processing head has a second positioning device and the processing device (10; 20) is configured to position the processing unit at the specified processing position with a second accuracy using the second positioning device, the second accuracy being higher than the first accuracy, so that the lower accuracy of the first positioning device is compensated for by the positioning with the second positioning device, characterized in that the processing head is designed as a hand-guided processing device, so that the processing head can be positioned manually at the specified processing position, in a state in which the processing head is removed from the first positioning device, and the processing head is configured to position the processing unit with the second accuracy at the specified processing position using the second positioning device, so that a lower accuracy of the manual positioning is compensated by the positioning with the second positioning device.
A sliding seismic isolator, comprising: a first plate configured to be attached to a building support; at least one elongate element extending from the first plate; a second plate; a low-friction layer positioned between the first and second plates and configured to allow the first and second plates to move relative one another along a horizontal plane; a lower support element attached to the second plate; a biasing element positioned within the lower support element; and at least one damping structure comprising a first closed end spaced from the first plate and a second closed end spaced from a base of the seismic isolator, the damping structure containing a deformable substance and being configured to expand longitudinally when compressed; characterized in that the at least one damping structure is a cylindrical tube partially or entirely filled with the deformable substance. a first plate configured to be attached to a building support; at least one elongate element extending from the first plate; a second plate; a low-friction layer positioned between the first and second plates and configured to allow the first and second plates to move relative one another along a horizontal plane; a lower support element attached to the second plate; a biasing element positioned within the lower support element; and at least one damping structure comprising a first closed end spaced from the first plate and a second closed end spaced from a base of the seismic isolator, the damping structure containing a deformable substance and being configured to expand longitudinally when compressed; characterized in that the at least one damping structure is a cylindrical tube partially or entirely filled with the deformable substance.
A surgical instrument, comprising: a surgical instrument body; and a label applied to the surgical instrument body and including a film printed with ink providing an indication of reprocessing of the surgical instrument; wherein: the film is a clear film and includes a first surface that is exposed for viewing when the label is applied to the surgical instrument body and a second surface that faces the surgical instrument body; ink is printed upon the second surface and is visible until contact with a reprocessing fluid disrupts its visual integrity; and the ink on the second surface is exposed to the fluid when the surgical instrument is in contact with the reprocessing fluid. a surgical instrument body; and a label applied to the surgical instrument body and including a film printed with ink providing an indication of reprocessing of the surgical instrument; wherein: the film is a clear film and includes a first surface that is exposed for viewing when the label is applied to the surgical instrument body and a second surface that faces the surgical instrument body; ink is printed upon the second surface and is visible until contact with a reprocessing fluid disrupts its visual integrity; and the ink on the second surface is exposed to the fluid when the surgical instrument is in contact with the reprocessing fluid. the film is a clear film and includes a first surface that is exposed for viewing when the label is applied to the surgical instrument body and a second surface that faces the surgical instrument body; ink is printed upon the second surface and is visible until contact with a reprocessing fluid disrupts its visual integrity; and the ink on the second surface is exposed to the fluid when the surgical instrument is in contact with the reprocessing fluid.
A telescopic joint (41, 120, 140, 150, 160) for a marine drilling riser, said telescopic joint comprising: an outer barrel (71, 121); and an inner barrel (72, 122) received in the outer barrel, the inner barrel having a clearance fit with respect to the outer barrel for sliding of the inner barrel with respect to the outer barrel while maintaining the inner barrel in a coaxial relationship with respect to the outer barrel, and the inner barrel and the outer barrel defining a central lumen for passage of a drill pipe string through the telescopic joint; characterized in that the telescopic joint further comprises: a tubular rolling elastomeric membrane (101, 110, 114, 125) disposed within the outer barrel and having a first end secured to an outer circumference of the inner barrel and a second end secured to an inner circumference of the outer barrel for sealing drilling fluid within the central lumen. an outer barrel (71, 121); and an inner barrel (72, 122) received in the outer barrel, the inner barrel having a clearance fit with respect to the outer barrel for sliding of the inner barrel with respect to the outer barrel while maintaining the inner barrel in a coaxial relationship with respect to the outer barrel, and the inner barrel and the outer barrel defining a central lumen for passage of a drill pipe string through the telescopic joint; characterized in that the telescopic joint further comprises: a tubular rolling elastomeric membrane (101, 110, 114, 125) disposed within the outer barrel and having a first end secured to an outer circumference of the inner barrel and a second end secured to an inner circumference of the outer barrel for sealing drilling fluid within the central lumen. a tubular rolling elastomeric membrane (101, 110, 114, 125) disposed within the outer barrel and having a first end secured to an outer circumference of the inner barrel and a second end secured to an inner circumference of the outer barrel for sealing drilling fluid within the central lumen.
Tape sealer for winding adhesive tape around an object such that two adhesive portions of the tape contact each other, comprising: a housing with a passage for passing the object there through in a transport direction, wherein the passage defines a plane parallel to the transport direction, the plane having a first side and an opposite second side; a tape supply, arranged at the first side of the plane and adapted for supplying tape with an adhesive side thereof facing the transport direction; a support (38; 838,839) and a clamping element (40; 840) arranged at the second side of the plane and adapted for clamping therebetween a first portion of the tape supplied by the tape supply, characterized in that the clamping element (40; 840) is moveable towards and away from the support (38; 838,839); the tape sealer further comprising: a push element (36; 836) with a contact surface (48; 860), adapted for moving between a first position in which the contact surface (48; 860) is located on the first side of the plane and a second position in which the contact surface (48; 860) is located on the second side of the plane and is arranged for pressing the adhesive side of the first portion of the tape against an adhesive side of a second portion of the tape. a housing with a passage for passing the object there through in a transport direction, wherein the passage defines a plane parallel to the transport direction, the plane having a first side and an opposite second side; a tape supply, arranged at the first side of the plane and adapted for supplying tape with an adhesive side thereof facing the transport direction; a support (38; 838,839) and a clamping element (40; 840) arranged at the second side of the plane and adapted for clamping therebetween a first portion of the tape supplied by the tape supply, characterized in that the clamping element (40; 840) is moveable towards and away from the support (38; 838,839); the tape sealer further comprising: a push element (36; 836) with a contact surface (48; 860), adapted for moving between a first position in which the contact surface (48; 860) is located on the first side of the plane and a second position in which the contact surface (48; 860) is located on the second side of the plane and is arranged for pressing the adhesive side of the first portion of the tape against an adhesive side of a second portion of the tape.
A torsion bar spring assembly for a wheel suspension of a motor vehicle, comprising an actuator that pretensions the torsion bar spring assembly in a variable manner and is located on the vehicle body or on an auxiliary frame, and a coaxial first torsion bar spring that is connected on the output side to a wheel suspension member of the wheel suspension via an output lever, wherein a housing of the actuator is movably supported on the vehicle body in at least one support position in the circumferential direction and is spring-elastically supported on the vehicle body via at least one spring member in the direction of the torsion moments acting on the torsion bar spring, characterised in that on the housing of the actuator, a radially protruding lever is fixed that is clamped between two oppositely arranged springs supported on the vehicle body as spring members, or in that the spring member is a coil spring disposed around the actuator and acting in both rotary directions, the spring ends (16a, 16b) of which coil spring are anchored to the vehicle body and to the housing of the actuator.