mhurhangee/ep-ind-claims huggingface dataset:
A method for use in motion detection of an object, the method comprising: imaging a coherent speckle pattern, propagating from the object, by an imaging system being focused on a plane displaced from the object, generating a sequence of defocused images, processing said sequence of the defocused images of the coherent speckle patterns, and determining a shift between regions of the object which appear in each pair of the sequential images of the object, each of said regions including a stationary speckle pattern formed by light originated at the same region of the object, said shift being indicative of correlation between the sequential speckle patterns corresponding to motion originated at the object. imaging a coherent speckle pattern, propagating from the object, by an imaging system being focused on a plane displaced from the object, generating a sequence of defocused images, processing said sequence of the defocused images of the coherent speckle patterns, and determining a shift between regions of the object which appear in each pair of the sequential images of the object, each of said regions including a stationary speckle pattern formed by light originated at the same region of the object, said shift being indicative of correlation between the sequential speckle patterns corresponding to motion originated at the object.
A computed tomography perfusion phantom comprising: a scan plane configured to align with an imaging plane of a CT device; a plurality of sample rods that extend through the scan plane, the sample rods each include a plurality of adjacent cells, the plurality of adjacent cells each constructed of materials having predetermined CT numbers and the plurality of adjacent cells comprise cells of a plurality of CT numbers, wherein a first sample rod of the plurality of sample rods models a perfusion of radiographic material into and out of a tissue and a second sample rod of the plurality of sample rods models a perfusion of radiographic material into and out of a vessel; a drive motor coupled to the sample rod and the drive motor moves the sample rod through the scan plane; and a carriage that supports the plurality of sample rods, the carriage coupled to the drive motor such that the drive motor moves the carriage, resulting in moving the sample rods through the scan plane. a scan plane configured to align with an imaging plane of a CT device; a plurality of sample rods that extend through the scan plane, the sample rods each include a plurality of adjacent cells, the plurality of adjacent cells each constructed of materials having predetermined CT numbers and the plurality of adjacent cells comprise cells of a plurality of CT numbers, wherein a first sample rod of the plurality of sample rods models a perfusion of radiographic material into and out of a tissue and a second sample rod of the plurality of sample rods models a perfusion of radiographic material into and out of a vessel; a drive motor coupled to the sample rod and the drive motor moves the sample rod through the scan plane; and a carriage that supports the plurality of sample rods, the carriage coupled to the drive motor such that the drive motor moves the carriage, resulting in moving the sample rods through the scan plane.
A cleaning pad for an escalator or moving walkway, the cleaning pad comprising: a contact surface with a plurality of ridges and grooves configured to mesh with the channels and ribs of an escalator or moving walkway step, wherein the contact surface comprises an absorbent material, characterized in that the contact surface further comprises a semi-rigid material, wherein the semi-rigid material has a rigidity greater than that of the absorbent material; and the semi-rigid material is positioned substantially parallel to the absorbent material so that that the ridges and grooves of the semi-rigid material are coincident with those of the absorbent material. a contact surface with a plurality of ridges and grooves configured to mesh with the channels and ribs of an escalator or moving walkway step, wherein the contact surface comprises an absorbent material, characterized in that the contact surface further comprises a semi-rigid material, wherein the semi-rigid material has a rigidity greater than that of the absorbent material; and the semi-rigid material is positioned substantially parallel to the absorbent material so that that the ridges and grooves of the semi-rigid material are coincident with those of the absorbent material.
A method of accessing a Network Function, NF, segment by an NF consumer, wherein the NF segment corresponds to an NF producer instance in charge of a set of user equipment, UE, for subscribers of a core network, the method executed at a first network node that implements an Access and Mobility Management Function, AMF, and the method comprising: receiving (S-1010, S-710) at the first network node a UE registration message originated from a UE, wherein the UE registration message comprises a Subscription Concealed Identifier, SUCI, which includes a Routing Indicator assigned to a subscription for the UE in the core network; selecting (S-1020, S-715), at the first network node, an NF segment assigned for the UE based on the Routing Indicator; accessing (S-1030, S-720), from the first network node to the NF segment assigned for the UE, to obtain UE related information; receiving (S-1040, S-720), at the first network node from the NF segment assigned for the UE, a Subscription Permanent Identifier, SUPI, for the UE; and transmitting (S-1050, S-725), from the first network node toward a second network node of the core network, an operation request with the SUPI and the Routing Indicator for the UE, to facilitate discovery by the second network node of the NF segment assigned for the UE. receiving (S-1010, S-710) at the first network node a UE registration message originated from a UE, wherein the UE registration message comprises a Subscription Concealed Identifier, SUCI, which includes a Routing Indicator assigned to a subscription for the UE in the core network; selecting (S-1020, S-715), at the first network node, an NF segment assigned for the UE based on the Routing Indicator; accessing (S-1030, S-720), from the first network node to the NF segment assigned for the UE, to obtain UE related information; receiving (S-1040, S-720), at the first network node from the NF segment assigned for the UE, a Subscription Permanent Identifier, SUPI, for the UE; and transmitting (S-1050, S-725), from the first network node toward a second network node of the core network, an operation request with the SUPI and the Routing Indicator for the UE, to facilitate discovery by the second network node of the NF segment assigned for the UE.
Semiconductor component comprising a MESA-shaped bipolar semiconductor chip, wherein a first metallization layer is arranged on a first main surface of the semiconductor chip and a second metallization layer is arranged on a second main surface of the semiconductor chip, said second main surface being arranged opposite the first main surface of the semiconductor chip, characterized in that an aluminium oxide layer is arranged on an edge surface of the semiconductor chip that extends circumferentially around the semiconductor chip and connects the first and second main surfaces (2, 3), wherein the aluminium oxide layer is arranged on the entire edge surface of the semiconductor chip, wherein a layer consisting of a crosslinked organic material is arranged on the surface of the aluminium oxide layer.
An oven comprising: a cooking chamber in which food is cooked; a door to open or close a front side of the cooking chamber; a cooling fan located above the cooking chamber to suction and blow outside air; a discharge duct to discharge the air, blown by the cooling fan, forward of the door; a flow-path (53, 54, 55) defined in the door to allow outside air to be introduced into and moved in the flow-path so as to discharge with the air through the discharge duct due to the Venturi effect; characterized by a suction pipe (102a, 102b, 112a, 112b) connecting the flow-path (53, 54, 55) and the cooling fan to each other and configured to suction a part of the air moving in the flow-path to allow the part of the air moving in the flow-path to be suctioned toward the cooling fan, wherein the suction pipe (102a, 102b, 112a, 112b) includes a first suction pipe (102a, 102b) provided in the door and a second suction pipe (102a, 102b) to communicate the first suction pipe (102a, 102b) and the cooling fan with each other, wherein the door includes a door frame defining a framework; and the first suction pipe (102a, 102b) is vertically placed in either lateral portion of the door frame. a cooking chamber in which food is cooked; a door to open or close a front side of the cooking chamber; a cooling fan located above the cooking chamber to suction and blow outside air; a discharge duct to discharge the air, blown by the cooling fan, forward of the door; a flow-path (53, 54, 55) defined in the door to allow outside air to be introduced into and moved in the flow-path so as to discharge with the air through the discharge duct due to the Venturi effect; characterized by a suction pipe (102a, 102b, 112a, 112b) connecting the flow-path (53, 54, 55) and the cooling fan to each other and configured to suction a part of the air moving in the flow-path to allow the part of the air moving in the flow-path to be suctioned toward the cooling fan, wherein the suction pipe (102a, 102b, 112a, 112b) includes a first suction pipe (102a, 102b) provided in the door and a second suction pipe (102a, 102b) to communicate the first suction pipe (102a, 102b) and the cooling fan with each other, wherein the door includes a door frame defining a framework; and the first suction pipe (102a, 102b) is vertically placed in either lateral portion of the door frame.
A truck, comprising: - a rear axle, comprising a motor housing extending laterally between rear wheels of the truck, and an electric motor and power transmission coaxially aligned in said motor housing and arranged for driving the rear wheels; and - a suspension system, for suspending the rear axle to a chassis of the truck, said suspension system at least comprising a pair of springs and shock absorbers, and an anti-roll stabilizer and a guiding rod linkage for allowing movement in a vertical direction relative to the chassis; wherein the motor housing is limited by a minimum vertical ground clearance between the road surface and a bottom surface of the motor housing; wherein the motor housing comprises a reinforced central top section providing a guiding rod mount for pivotally mounting the guiding rod linkage to the rear axle; characterized in that the motor housing further comprises suspension yokes integrated into the housing and extending on either side of the motor housing near both axial ends, said suspension yokes providing spring mounts and shock absorber mounts for mounting said opposed pair of springs and shock absorbers, wherein the motor housing comprises a rear section outer surface provided with connectors, to provide input ports to the electric motor and wherein said connectors are provided in an orientation to guide one or more high voltage power cables adjacent the rear section outer surface in a vertical upward direction (+Z). - a rear axle, comprising a motor housing extending laterally between rear wheels of the truck, and an electric motor and power transmission coaxially aligned in said motor housing and arranged for driving the rear wheels; and - a suspension system, for suspending the rear axle to a chassis of the truck, said suspension system at least comprising a pair of springs and shock absorbers, and an anti-roll stabilizer and a guiding rod linkage for allowing movement in a vertical direction relative to the chassis; wherein the motor housing is limited by a minimum vertical ground clearance between the road surface and a bottom surface of the motor housing; wherein the motor housing comprises a reinforced central top section providing a guiding rod mount for pivotally mounting the guiding rod linkage to the rear axle; characterized in that the motor housing further comprises suspension yokes integrated into the housing and extending on either side of the motor housing near both axial ends, said suspension yokes providing spring mounts and shock absorber mounts for mounting said opposed pair of springs and shock absorbers, wherein the motor housing comprises a rear section outer surface provided with connectors, to provide input ports to the electric motor and wherein said connectors are provided in an orientation to guide one or more high voltage power cables adjacent the rear section outer surface in a vertical upward direction (+Z).
A method of Transmission Control Protocol, TCP, User Datagram Protocol, UDP, or Stream Control Transmission Protocol, SCTP, communication between two railway signalling entities (6, 18) over a wireless network which provides Mission Critical Data, MCData, services according to a 3GPP LTE standard that provides such MCData services, comprising: configuring a first MCData client (15, 15 a) for the first signalling entity and registering the first MCData client (15, 15 a) with an MCData server (14, 14 a) of the wireless network for MCData Short Data Services, SDS, transfer; configuring a second MCData client (21, 21 a) for the second signalling entity and registering the second MCData client (21, 21 a) with the MCData server (14, 14 a) for MCData SDS transfer; receiving a signalling message transmitted over TCP, UDP or SCTP from the first signalling entity in the first MCData client (15, 15 a); in the first MCData client (15, 15 a), wrapping the signalling message in an MCData SDS message (22, 22 a); sending the MCData SDS message (22, 22 a) from the first MCData client (15, 15 a) to the second MCData client (21, 21 a) via the MCData server (14, 14 a); extracting the signalling message from the MCData SDS message (22, 22 a) in the second MCData client (21, 21 a); and sending the signalling message to the second signalling entity. configuring a first MCData client (15, 15 a) for the first signalling entity and registering the first MCData client (15, 15 a) with an MCData server (14, 14 a) of the wireless network for MCData Short Data Services, SDS, transfer; configuring a second MCData client (21, 21 a) for the second signalling entity and registering the second MCData client (21, 21 a) with the MCData server (14, 14 a) for MCData SDS transfer; receiving a signalling message transmitted over TCP, UDP or SCTP from the first signalling entity in the first MCData client (15, 15 a); in the first MCData client (15, 15 a), wrapping the signalling message in an MCData SDS message (22, 22 a); sending the MCData SDS message (22, 22 a) from the first MCData client (15, 15 a) to the second MCData client (21, 21 a) via the MCData server (14, 14 a); extracting the signalling message from the MCData SDS message (22, 22 a) in the second MCData client (21, 21 a); and sending the signalling message to the second signalling entity.
Method for detecting data traffic in a communication network, in which - at least one network infrastructure device, to which at least a first and a second communication terminal are connected, is used to provide a monitoring interface for detecting data traffic between at least the first and second communication devices, said monitoring interface being associated with the two communication terminals and protected against unauthorized access, characterized in that - a device detection apparatus is used to ascertain interface information, which includes available monitoring interfaces on network infrastructure devices and address information associated with the monitoring interfaces, - the device detection apparatus is used to provide this interface information to at least one logging apparatus that is separate from the at least one network infrastructure device, - the logging apparatus responds to a request from a user to detect the data traffic between the first and second communication terminals by taking the interface information provided by way of the device detection apparatus as a basis for accessing the monitoring interface associated with the two communication terminals and at least temporarily storing data traffic detected there. - at least one network infrastructure device, to which at least a first and a second communication terminal are connected, is used to provide a monitoring interface for detecting data traffic between at least the first and second communication devices, said monitoring interface being associated with the two communication terminals and protected against unauthorized access, characterized in that - a device detection apparatus is used to ascertain interface information, which includes available monitoring interfaces on network infrastructure devices and address information associated with the monitoring interfaces, - the device detection apparatus is used to provide this interface information to at least one logging apparatus that is separate from the at least one network infrastructure device, - the logging apparatus responds to a request from a user to detect the data traffic between the first and second communication terminals by taking the interface information provided by way of the device detection apparatus as a basis for accessing the monitoring interface associated with the two communication terminals and at least temporarily storing data traffic detected there.
A screen device for sorting screening material into one or more fine grain fractions and one or more oversize grain fractions, the screen device comprising: (a) a frame (2, 3); and (b) a roller screen comprising screen rollers (20; 30) which are arranged, such that they can be rotary-driven about a roller axis each, next to each other and which are supported on the frame (2, 3) and which each comprise a roller body (21; 31) and one or more screen structures (22; 32) which protrude radially relative to the roller body (21; 31), (c) wherein there is a fine grain screen gap between the roller bodies (21; 31) of respectively adjacent screen rollers (20; 30), through which a fine grain fraction falls, while an oversize grain fraction is conveyed on the roller screen in the axial direction of the rollers when the screen rollers (20; 30) are rotary-driven, (d) the roller body (21; 31) of at least one of the screen rollers (20; 30) widens radially in the axial direction of the rollers in an axial widening portion (25; 35), (e) and the width (w) of the fine grain screen gap which the widening roller body (21; 31) forms with the roller body (21; 31) of an adjacent screen roller (20; 30) decreases in the axial direction of the rollers along the widening portion (25; 35), characterised in that (f) the protruding screen structures (22; 32) of the respectively adjacent screen rollers (20; 30) interlock as viewed in the plan view onto the roller screen. (a) a frame (2, 3); and (b) a roller screen comprising screen rollers (20; 30) which are arranged, such that they can be rotary-driven about a roller axis each, next to each other and which are supported on the frame (2, 3) and which each comprise a roller body (21; 31) and one or more screen structures (22; 32) which protrude radially relative to the roller body (21; 31), (c) wherein there is a fine grain screen gap between the roller bodies (21; 31) of respectively adjacent screen rollers (20; 30), through which a fine grain fraction falls, while an oversize grain fraction is conveyed on the roller screen in the axial direction of the rollers when the screen rollers (20; 30) are rotary-driven, (d) the roller body (21; 31) of at least one of the screen rollers (20; 30) widens radially in the axial direction of the rollers in an axial widening portion (25; 35), (e) and the width (w) of the fine grain screen gap which the widening roller body (21; 31) forms with the roller body (21; 31) of an adjacent screen roller (20; 30) decreases in the axial direction of the rollers along the widening portion (25; 35), (f) the protruding screen structures (22; 32) of the respectively adjacent screen rollers (20; 30) interlock as viewed in the plan view onto the roller screen.
An antenna device, comprising: a pair of first elements (101e, 101f, 101g, 102e, 102f, 102g) that is arranged on a first plane; and a pair of second elements (201e, 201f, 201g, 202e, 202f, 202g) that is arranged on a second plane parallel to the first plane such that a polarized wave direction of the pair of second elements (201e, 201f, 201g, 202e, 202f, 202g) is orthogonal to that of the pair of first elements (101e, 101f, 101g, 102e, 102f, 102g), wherein a first element of the pair of first elements (101e, 101f, 101g, 102e, 102f, 102g) and a second element of the pair of second elements (201e, 201f, 201g, 202e, 202f, 202g) facing the first element are configured to act as antennas having different operating principles or a complex antenna in which the different operating principles are combined, according to a frequency band. a pair of first elements (101e, 101f, 101g, 102e, 102f, 102g) that is arranged on a first plane; and a pair of second elements (201e, 201f, 201g, 202e, 202f, 202g) that is arranged on a second plane parallel to the first plane such that a polarized wave direction of the pair of second elements (201e, 201f, 201g, 202e, 202f, 202g) is orthogonal to that of the pair of first elements (101e, 101f, 101g, 102e, 102f, 102g), wherein a first element of the pair of first elements (101e, 101f, 101g, 102e, 102f, 102g) and a second element of the pair of second elements (201e, 201f, 201g, 202e, 202f, 202g) facing the first element are configured to act as antennas having different operating principles or a complex antenna in which the different operating principles are combined, according to a frequency band.
A method for laser welding the end faces of the joints (5, 6) of two connecting flanges (3, 4), which are held in an adjoining manner, of two connecting partners (1, 2) made of a steel material, in which method, in addition to being moved in the advancement direction, which follows the longitudinal expanse of the joints (5, 6), the laser welding beam is moved back and forth in an oscillating manner transversely to the advancement direction, characterized in that at least one of the two connecting partners (1, 2) to be welded at the joints (5, 6) of their connecting flanges (3, 4) is provided with a metal coating, at least in the region of its connecting flange (3, 4), and in which the weld pool that occurs due to the introduction of energy during laser welding is kept liquid for controlled occurrence of degassing processes and/or distribution processes of phases of the metallic coatings of the at least one connecting partner (1, 2), which phases are involved because of the welding, in that the oscillation of the laser welding beam takes place at a frequency between 80 Hz and 1000 Hz.