mhurhangee/ep-ind-claims huggingface dataset:
Connecting means (1, 101, 201, 301) for connecting at least two components, in particular precast concrete parts, spaced apart along an axial direction of the connecting means (1, 101, 201, 301), comprising: at least two connecting devices (2a, 2b, 102a, 102b, 202a, 202b), via which the connecting means (1, 101, 201, 301) can be attached to one of the at least two components, respectively, and a coupling device (3, 103, 203) which couples the at least two connecting devices (2a, 2b, 102a, 102b, 202a, 202b) to one another at least for the transmission of tensile forces, at least one of the connecting devices (2a, 2b, 102a, 102b, 202a, 202b) is coupled to a coupling section (33, 133, 233) of the coupling device (3, 103, 203) so as to be fixed at least with respect to the axial direction, wherein the at least one connecting device (2a, 2b, 102a, 102b, 202a, 202b) is formed by a threaded device (21, 121a, 121b), which is screwable to the respective component characterized in that the coupling device (3, 103, 203, 303) comprises at least three chain links (31, 131, 231, 331), wherein one chain link (31, 131, 231, 331) comprises the coupling section, and the chain links (31, 131, 231, 331) are connected directly in series. at least two connecting devices (2a, 2b, 102a, 102b, 202a, 202b), via which the connecting means (1, 101, 201, 301) can be attached to one of the at least two components, respectively, and a coupling device (3, 103, 203) which couples the at least two connecting devices (2a, 2b, 102a, 102b, 202a, 202b) to one another at least for the transmission of tensile forces, at least one of the connecting devices (2a, 2b, 102a, 102b, 202a, 202b) is coupled to a coupling section (33, 133, 233) of the coupling device (3, 103, 203) so as to be fixed at least with respect to the axial direction, wherein the at least one connecting device (2a, 2b, 102a, 102b, 202a, 202b) is formed by a threaded device (21, 121a, 121b), which is screwable to the respective component characterized in that the coupling device (3, 103, 203, 303) comprises at least three chain links (31, 131, 231, 331), wherein one chain link (31, 131, 231, 331) comprises the coupling section, and the chain links (31, 131, 231, 331) are connected directly in series.
Drive device of a roller shutter that has a roller shutter shaft that in a first mode is driven via a movable part of an electric drive and in a second mode is driven manually, wherein the drive device comprises: • a housing, • an interior part that is arranged at the housing in a rotatable manner, and a reception area for receiving a non-movable part of the electric drive in a torque-proof manner, • a manually operable drive element that is arranged directly at the interior part and serves for manually driving the roller shutter shaft, and • a locking device which blocks a rotational movement of the interior part in a locked state, wherein the roller shutter shaft is driven in the first mode, and in the unlocked state after actuation allows for a rotational movement of the interior part, wherein the roller shutter shaft is driven in the second mode. • a housing, • an interior part that is arranged at the housing in a rotatable manner, and a reception area for receiving a non-movable part of the electric drive in a torque-proof manner, • a manually operable drive element that is arranged directly at the interior part and serves for manually driving the roller shutter shaft, and • a locking device which blocks a rotational movement of the interior part in a locked state, wherein the roller shutter shaft is driven in the first mode, and in the unlocked state after actuation allows for a rotational movement of the interior part, wherein the roller shutter shaft is driven in the second mode.
A MRAM-based magnetic device comprising an interconnecting device and a plurality of MRAM cells, wherein the interconnecting device comprises, a first magnetic tunnel junction; a strap portion electrically connecting a lower end of the first magnetic tunnel junction; a current line portion electrically connecting an upper end of the first magnetic tunnel junction; an upper metallic stud electrically connecting a lower metallic stud through a via; wherein the strap portion is in direct electrical contact with the via, such that a current passing in the first magnetic tunnel junction flows directly between the strap portion and the via and between the via and the lower metallic stud or the upper metallic stud; and wherein each MRAM cell comprises a second magnetic tunnel junction; a junction strap electrically connecting a lower end of the second magnetic tunnel junction; a current line electrically connecting an upper end of the second magnetic tunnel junction; and a field line for passing a sense current the field line being arranged below the lower end of the second magnetic tunnel junction; the second magnetic tunnel junction of one MRAM cell being electrically connected in series with the second magnetic tunnel junction of another MRAM cell through the current line and the junction strap; wherein the strap portion of only the interconnecting device electrically connects the junction strap of one of the plurality of MRAM cells so that the interconnecting device is connected in series to the plurality of MRAM cells; characterized in that the upper metallic stud and the via are aligned downwardly with the lower metallic stud, and the current line portion is aligned downwardly with the first magnetic tunnel junction; and in that the upper metallic stud and the current line portion are aligned laterally with the upper end of the first magnetic tunnel junction.
An elastography system comprising: a hand-held elastography device including: a housing; a probing element removably attached to the housing; and a force sensor attached within the housing so as to have a fixed spatial relationship relative to the probing element and a fixed spatial relationship relative to the housing, the force sensor connected to the probing element; and a position sensing device connected to the elastography device; wherein the force sensor is configured to produce a signal indicative of a force applied to the probing element upon insertion of the probing element into a material, and the elastography system further comprises a processing unit connected to the force sensor, wherein the processing unit is configured to, based on changes in the signal, derive a mapping of spatial variations of a material property within the material in response to the variations of the material property during traversal of the probing element along an insertion path through the material. a housing; a probing element removably attached to the housing; and a force sensor attached within the housing so as to have a fixed spatial relationship relative to the probing element and a fixed spatial relationship relative to the housing, the force sensor connected to the probing element; and
A modular fibre reinforced plastic flange for a structural composite beam, for use in a wind turbine blade, comprising: a body formed of a plurality of preformed elongate elements (40, 140) each comprising predominantly uniaxial fibre reinforced plastic and being arranged in an array such that the longitudinal axes of the preformed elongate elements are substantially parallel to one another, wherein the dimensions of the body are substantially determined by the number and arrangement of the preformed elongate elements in the array, and wherein at least two of the preformed elongate elements differs from each other in that they comprise different materials; and a skin member (20, 30, 120, 130, 230) at least partially surrounding a plurality of the preformed elements in the array. a body formed of a plurality of preformed elongate elements (40, 140) each comprising predominantly uniaxial fibre reinforced plastic and being arranged in an array such that the longitudinal axes of the preformed elongate elements are substantially parallel to one another, wherein the dimensions of the body are substantially determined by the number and arrangement of the preformed elongate elements in the array, and wherein at least two of the preformed elongate elements differs from each other in that they comprise different materials; and a skin member (20, 30, 120, 130, 230) at least partially surrounding a plurality of the preformed elements in the array.
A method for automatically determining causes of service quality degradation in a communication network for automated root cause analysis, the method comprising the steps of: identifying (301, 1003) occurrence of degradation in service quality within a user session; identifying (303, 1005, 1007) an underperforming resource of the communication network during occurrence of said identified degradation in service quality; in response to determining that the underperforming resource has at least one dependant resource, identifying (305, 1017, 1005, 1007) any underperforming dependant resources during occurrence of said identified degradation in service quality; outputting (307, 1015) a plurality of causes of the service quality degradation including identity of the identified underperforming resources. identifying (301, 1003) occurrence of degradation in service quality within a user session; identifying (303, 1005, 1007) an underperforming resource of the communication network during occurrence of said identified degradation in service quality; in response to determining that the underperforming resource has at least one dependant resource, identifying (305, 1017, 1005, 1007) any underperforming dependant resources during occurrence of said identified degradation in service quality; outputting (307, 1015) a plurality of causes of the service quality degradation including identity of the identified underperforming resources.
An information processing apparatus comprising: a signal processing unit adapted to determine a signal strength of a first signal received from a first apparatus in a first network based on a first threshold, the first network being a network which the information processing apparatus belongs to; determine a signal strength of a second signal received from a second apparatus in a second network which is different from the first network, based on a second signal threshold, the second signal threshold being used for overlapping network; and generate a third signal threshold by using a relative value and the signal strength of the second signal received from the second network, the relative value being set in accordance with a relative distance between the information processing apparatus, the first apparatus and the second apparatus, when a signal state of the second signal is determined as idle based on the second signal threshold, wherein the signal processing unit comprises a judging unit adapted to determine the signal strength of the second signal based on the third signal threshold to judge whether to allow signal transmission during a period while the second signal from the second network occupies a medium. a signal processing unit adapted to determine a signal strength of a first signal received from a first apparatus in a first network based on a first threshold, the first network being a network which the information processing apparatus belongs to; determine a signal strength of a second signal received from a second apparatus in a second network which is different from the first network, based on a second signal threshold, the second signal threshold being used for overlapping network; and generate a third signal threshold by using a relative value and the signal strength of the second signal received from the second network, the relative value being set in accordance with a relative distance between the information processing apparatus, the first apparatus and the second apparatus, when a signal state of the second signal is determined as idle based on the second signal threshold, wherein the signal processing unit comprises a judging unit adapted to determine the signal strength of the second signal based on the third signal threshold to judge whether to allow signal transmission during a period while the second signal from the second network occupies a medium.
A paraffin fraction consisting of 98.0-99.9% by weight C 4 -C 12 i- and n-paraffins with 1:4 to 4:1 i/n mass ratio and 0.1-2.0% by weight C 4 -C 10 carboxylic acid esters, wherein the boiling range of the paraffin fraction is 20-250°C.
A method of manufacturing a knitted component for an article of footwear, the method comprising: knitting a tongue with a knitting machine; the method being characterized by further comprising: holding the tongue on needles of the knitting machine; knitting a first portion of a knit element with the knitting machine while the tongue is held on the needles; joining the tongue to the first portion of the knit element; and knitting a second portion of the knit element with the knitting machine. knitting a tongue with a knitting machine; the method being characterized by further comprising: holding the tongue on needles of the knitting machine; knitting a first portion of a knit element with the knitting machine while the tongue is held on the needles; joining the tongue to the first portion of the knit element; and knitting a second portion of the knit element with the knitting machine. holding the tongue on needles of the knitting machine; knitting a first portion of a knit element with the knitting machine while the tongue is held on the needles; joining the tongue to the first portion of the knit element; and knitting a second portion of the knit element with the knitting machine.
A process of manufacturing an Nb-Ti based superconducting wire comprising, hybridizing a stabilizer and an Nb-Ti alloy bar and then subjecting said stabilizer and Nb-Ti alloy bar to reduction working, wherein the Nb-Ti alloy bar has a grain size of 200 μm or less in terms of average equivalent circle diameter at the stage of hybridizing the Nb-Ti alloy bar with the stabilizer.
A soft robotic grasping system for grasping an article, comprising: a gripper hub having an axial center region about an axial center line, the gripper hub extending from the axial center line in a lateral direction; a soft robotic finger supported by the hub, the soft robotic finger including an elastomeric outer surface surrounding an internal void, and configured to curl when a pressure change occurs within the internal void; a linkage extending from a proximal end of the soft robotic finger to the gripper hub; a pivot point at which the linkage is rotatably connected to the gripper hub; a linear actuator (414, 506) disposed between the pivot point and the proximal end of the soft robotic finger and configured to move in the lateral direction; and a controller configured to actuate the linear actuator (414, 506) to move the linear actuator (414, 506) in the lateral direction, wherein the linkage is connected to the linear actuator (414, 506) via a sliding pivot, the sliding pivot connected to the linear actuator (414, 506). a gripper hub having an axial center region about an axial center line, the gripper hub extending from the axial center line in a lateral direction; a soft robotic finger supported by the hub, the soft robotic finger including an elastomeric outer surface surrounding an internal void, and configured to curl when a pressure change occurs within the internal void; a linkage extending from a proximal end of the soft robotic finger to the gripper hub; a pivot point at which the linkage is rotatably connected to the gripper hub; a linear actuator (414, 506) disposed between the pivot point and the proximal end of the soft robotic finger and configured to move in the lateral direction; and a controller configured to actuate the linear actuator (414, 506) to move the linear actuator (414, 506) in the lateral direction, wherein the linkage is connected to the linear actuator (414, 506) via a sliding pivot, the sliding pivot connected to the linear actuator (414, 506).
A multiple-compartment container comprising: an upper rim defining an upper plane; a lower rim defining a lower plane; and a perimeter wall connecting the upper rim to the lower rim and forming an outer surface of the container; at least one internal wall dividing the container into at least a first compartment and a second compartment, wherein an upper edge of the at least one internal wall is an uppermost feature of the container and wherein an upper portion of the internal wall is deformable to present a widened sealing surface during a sealing operation; a first bottom surface defining a lower boundary of the second compartment; wherein the first bottom surface is substantially coplanar with the lower plane; wherein a portion of the internal wall comprising the upper edge interfaces with the upper rim; characterized by: a second bottom surface offset from the first bottom surface and defining a lower boundary of the first compartment, wherein the second bottom surface defines a middle plane between the upper plane and the lower plane and divides the first compartment into a top compartment and a bottom compartment; wherein the top compartment has an open face coplanar with the upper plane and the bottom compartment has an open face coplanar with the lower plane. an upper rim defining an upper plane; a lower rim defining a lower plane; and a perimeter wall connecting the upper rim to the lower rim and forming an outer surface of the container; at least one internal wall dividing the container into at least a first compartment and a second compartment, wherein an upper edge of the at least one internal wall is an uppermost feature of the container and wherein an upper portion of the internal wall is deformable to present a widened sealing surface during a sealing operation; a first bottom surface defining a lower boundary of the second compartment; wherein the first bottom surface is substantially coplanar with the lower plane; wherein a portion of the internal wall comprising the upper edge interfaces with the upper rim; characterized by: a second bottom surface offset from the first bottom surface and defining a lower boundary of the first compartment, wherein the second bottom surface defines a middle plane between the upper plane and the lower plane and divides the first compartment into a top compartment and a bottom compartment; wherein the top compartment has an open face coplanar with the upper plane and the bottom compartment has an open face coplanar with the lower plane. a second bottom surface offset from the first bottom surface and defining a lower boundary of the first compartment, wherein the second bottom surface defines a middle plane between the upper plane and the lower plane and divides the first compartment into a top compartment and a bottom compartment; wherein the top compartment has an open face coplanar with the upper plane and the bottom compartment has an open face coplanar with the lower plane.
A vehicle crossmember configured for attachment to transversely opposite sides of a vehicle body, the crossmember comprising: a crossbar extending in a lengthwise direction such that the crossbar extends transversely across the vehicle body when attached to the vehicle body, wherein the crossbar is made from fiber-reinforced polymeric material having a plurality of different material compositions along the lengthwise direction, each of the plurality of different material compositions being a fiber-reinforced polymeric material composition having non-randomly oriented fiber reinforcements, wherein the plurality of different material compositions includes a first material composition and a second material composition that meet at a transition region of the crossbar, the first material composition being uniform along a first portion of the crossbar between a first mounting flange and the transition region and the second material composition being uniform along a second portion of the crossbar between a second mounting flange and the transition region, and wherein the lengthwise direction is the direction the crossbar extends between the first mounting flange and the second mounting flange.
A device for moving a lifting column, for example a lifting column of an operating table, characterized in that it consists of a frame comprising a lower part having rolling means and an upper portion comprising attachment means (26, 29), with said attachment means comprising at least one bearing zone intended to support a lower portion of an attachment zone of the lifting column, an upper abutment surface intended to cooperate with an upper portion of said attachment zone, and a lower abutment surface intended to cooperate with the lower part of said attachment zone, with the upper and lower abutment surfaces (32, 28) being opposed and horizontally and vertically offset relative to each other.
A method of deploying a flexible elongate member into water comprising: (i) suspending a tensioner system underwater from a winch apparatus, the winch apparatus mounted on a deployment frame which is in turn mounted on a vessel on the water; (ii) the winch apparatus having active heave compensation to at least in part, offset movement of the vessel in the water, and reduce the movement of the tensioner system relative to the vessel; (iii) feeding the elongate member from above the water to under the water and into, through and out of the tensioner system, thus deploying the elongate member under the water. (i) suspending a tensioner system underwater from a winch apparatus, the winch apparatus mounted on a deployment frame which is in turn mounted on a vessel on the water; (ii) the winch apparatus having active heave compensation to at least in part, offset movement of the vessel in the water, and reduce the movement of the tensioner system relative to the vessel; (iii) feeding the elongate member from above the water to under the water and into, through and out of the tensioner system, thus deploying the elongate member under the water.