mhurhangee/patent-ind-claim-en huggingface dataset:
A method for single point of custody transfer of data, comprising: initiating a request for data by a data requesting party wherein the request is associated with a unique identifier ; establishing a location for the secure storage of data; delivering the request for data to a data sending party, wherein the unique identifier links the location to the data requesting party and the data sending party; establishing, by the data sending party, a secure connection to the data requesting party after authenticity of the unique identifier has been verified by the data requesting party, wherein the secure connection is associated with the unique identifier, and wherein the secure connection is unidirectional as from the data sending party; placing, by the data sending party via the secure connection, the requested data within the location for the secure storage of data for transferring the requested data from the data sending party to the data requesting party; responsive to placing the requested data within the location, closing the location for the secure storage of data, wherein the secure connection is no longer accessible after the location for the secure storage of data is closed; and responsive to the location for the secure storage of data being closed, notifying the data requesting party that the requested data has been placed in the location for the secure storage of data associated with the unique identifier. initiating a request for data by a data requesting party wherein the request is associated with a unique identifier ; establishing a location for the secure storage of data; delivering the request for data to a data sending party, wherein the unique identifier links the location to the data requesting party and the data sending party; establishing, by the data sending party, a secure connection to the data requesting party after authenticity of the unique identifier has been verified by the data requesting party, wherein the secure connection is associated with the unique identifier, and wherein the secure connection is unidirectional as from the data sending party; placing, by the data sending party via the secure connection, the requested data within the location for the secure storage of data for transferring the requested data from the data sending party to the data requesting party; responsive to placing the requested data within the location, closing the location for the secure storage of data, wherein the secure connection is no longer accessible after the location for the secure storage of data is closed; and responsive to the location for the secure storage of data being closed, notifying the data requesting party that the requested data has been placed in the location for the secure storage of data associated with the unique identifier.
A method for removing prekallikrein activator and a thrombogenic agent selected from Factor XI and/or Factor XIa from an immunoglobulin containing solution, the method comprising the steps of: (a) removing the Factor XI and/or Factor XIa by contacting the immunoglobulin containing solution at a pH in the range of higher than 3.8 to equal to or lower than 5.3 with a support comprising immobilized negatively charged groups to allow binding of Factor XI and/or Factor XIa; and collecting an unbound fraction comprising IgG; and (b) removing the prekallikrein activator by contacting the immunoglobulin containing solution at a pH in the range of 7 to 8.2 with a support comprising immobilized positively charged groups to allow binding of prekallikrein activator; and collecting an unbound fraction comprising IgG; wherein the method employs step (a) followed by step (b) or step (b) followed by step (a). (a) removing the Factor XI and/or Factor XIa by contacting the immunoglobulin containing solution at a pH in the range of higher than 3.8 to equal to or lower than 5.3 with a support comprising immobilized negatively charged groups to allow binding of Factor XI and/or Factor XIa; and collecting an unbound fraction comprising IgG; and (b) removing the prekallikrein activator by contacting the immunoglobulin containing solution at a pH in the range of 7 to 8.2 with a support comprising immobilized positively charged groups to allow binding of prekallikrein activator; and collecting an unbound fraction comprising IgG;
Optical security element comprising a reflective light-redirecting surface, or a refractive transparent or partially transparent light-redirecting surface, having a relief pattern of depth δ f adapted to redirect incident light received from a point-like source (S) and form a projected image containing a caustic pattern on a projection surface , said caustic pattern reproducing a reference pattern and being visually recognizable, characterized in that : a profile of the relief pattern has abrupt variations formed by machining a surface of an optical material piece according to a calculated relief pattern profile having discontinuities (M 1 ,M 2 ,M 3 ,M 4 ) said machined abrupt variations corresponding to the discontinuities, wherein the calculated relief pattern profile having discontinuities is obtained by slicing an initial relief pattern profile of a model light-redirecting surface into smaller contiguous profile portions, said initial relief pattern profile having a depth δ i greater than δ f and being operable to reproduce by optical path simulation said caustic pattern on the projection surface under illumination by the point-like source, the slicing generating a boundary surface between any two contiguous profile portions which extends parallel to an optical axis of said model light-redirecting surface, and by collapsing along the optical axis each profile portion comprised between two consecutive boundary surfaces, thereby forming the calculated relief profile having a discontinuity along each boundary surface. a profile of the relief pattern has abrupt variations formed by machining a surface of an optical material piece according to a calculated relief pattern profile having discontinuities (M 1 ,M 2 ,M 3 ,M 4 ) said machined abrupt variations corresponding to the discontinuities, wherein the calculated relief pattern profile having discontinuities is obtained by slicing an initial relief pattern profile of a model light-redirecting surface into smaller contiguous profile portions, said initial relief pattern profile having a depth δ i greater than δ f and being operable to reproduce by optical path simulation said caustic pattern on the projection surface under illumination by the point-like source, the slicing generating a boundary surface between any two contiguous profile portions which extends parallel to an optical axis of said model light-redirecting surface, and by collapsing along the optical axis each profile portion comprised between two consecutive boundary surfaces, thereby forming the calculated relief profile having a discontinuity along each boundary surface.
An inter-master enhanced NodeB, MeNB, handover method in a small cell system, comprising: sending (303; 801), by a source MeNB, a handover request message including a measurement result of a user equipment, UE, and an eNB ID of a secondary eNB, SeNB, to a target MeNB; receiving , by the source MeNB from the target MeNB, a handover request acknowledge message indicating that a UE context in the SeNB is kept and sending , by the source MeNB to the UE, a radio resource control, RRC, reconfiguration message for handover to the target MeNB. sending (303; 801), by a source MeNB, a handover request message including a measurement result of a user equipment, UE, and an eNB ID of a secondary eNB, SeNB, to a target MeNB; receiving , by the source MeNB from the target MeNB, a handover request acknowledge message indicating that a UE context in the SeNB is kept and sending , by the source MeNB to the UE, a radio resource control, RRC, reconfiguration message for handover to the target MeNB.
A vehicle , the vehicle comprising a chassis, a replaceable power source , and an onboard mounting and dismounting system for raising and lowering the replaceable power source for powering the vehicle , the replaceable power source including an outer casing with a horizontal shaft , the mounting and dismounting system comprising: a rack member configured to move along a linear vertical direction between a lowest position and a highest position, the rack member including a lifting portion configured to engage the horizontal shaft of the replaceable power source to raise and lower the replaceable power source ; an actuator configured to move the rack member along the linear vertical direction between the lowest position and the highest position; and a retaining member attached to the chassis and configured to engage the horizontal shaft of the replaceable power source when the rack member is in the highest position; wherein the rack member is configured to move in a vertical direction relative to the retaining member . a rack member configured to move along a linear vertical direction between a lowest position and a highest position, the rack member including a lifting portion configured to engage the horizontal shaft of the replaceable power source to raise and lower the replaceable power source ; an actuator configured to move the rack member along the linear vertical direction between the lowest position and the highest position; and a retaining member attached to the chassis and configured to engage the horizontal shaft of the replaceable power source when the rack member is in the highest position; wherein the rack member is configured to move in a vertical direction relative to the retaining member .
A radio-frequency - RF - switch comprising: a switch arm extending between a first node and a second node ; a plurality of metal-oxide-semiconductor field-effect transistors - MOSFETs - disposed on the switch arm between the first node and the second node , each of the plurality of MOSFETs having a respective source, drain, gate, and body, the plurality of MOSFETs including a plural quantity N of MOSFETs connected drain to source in series between the first node and the second node ; and a compensation circuit including a plural quantity N of metal-oxide-semiconductor - MOS - capacitors configured to generate one or more harmonics to cancel or reduce a non-linearity effect generated by the MOSFETs, each of the MOS capacitors being connected at a first end to the source of a respective MOSFET of the series of MOSFETs and further connected at a second end to a ground reference or each of the MOS capacitors being connected at a first end to the drain of a respective MOSFET of the series of MOSFETs and further connected at a second end to a ground reference. a switch arm extending between a first node and a second node ; a plurality of metal-oxide-semiconductor field-effect transistors - MOSFETs - disposed on the switch arm between the first node and the second node , each of the plurality of MOSFETs having a respective source, drain, gate, and body, the plurality of MOSFETs including a plural quantity N of MOSFETs connected drain to source in series between the first node and the second node ; and a compensation circuit including a plural quantity N of metal-oxide-semiconductor - MOS - capacitors configured to generate one or more harmonics to cancel or reduce a non-linearity effect generated by the MOSFETs, each of the MOS capacitors being connected at a first end to the source of a respective MOSFET of the series of MOSFETs and further connected at a second end to a ground reference or each of the MOS capacitors being connected at a first end to the drain of a respective MOSFET of the series of MOSFETs and further connected at a second end to a ground reference.
Drive for a leaf of a window or the like, having a drive unit for moving the leaf in relation to a stationary window frame by means of a drive element, wherein the drive unit is able to be attached to the leaf or the window frame by way of a mounting in that pintles which are disposed on the drive unit engage in receptacles that are assigned to the mounting, wherein at least one pintle is provided as a push-button type pintle which in a sprung manner is impinged in the deployed position thereof, characterized in that locking means which are adjustable between a releasing position in which the spring-impinged push-button type pintle is able to be pushed axially out of the deployed position thereof into the drive unit, and a locking position in which the spring-impinged push-button type pintle is locked in the deployed position thereof, are assigned to the spring-impinged push-button type pintle .
A water examination device comprising: a main body ; a water accommodation unit formed in the main body; a laser for irradiating light toward the water accommodation unit ; a detector for detecting a laser speckle at every set time period that is set in advance, the laser speckle being generated due to multiple scattering of the light in the water; a controller for estimating existence of impurities in the water in real-time by using the detected laser speckle; and a calibration unit for controlling the laser or the detector such that an intensity of light irradiated from the laser and measured by the detector is within a certain range set in advance, wherein the detector includes a sensor unit and a shutter formed at one side of the sensor unit to block the light incident in the sensor unit, the calibration unit is arranged to control a shutter speed of the shutter; wherein the water accommodation unit includes: a bottom portion formed in the main body; an opened surface opposite to the bottom portion ; and a wall portion formed to have a certain angle with respect to the bottom portion , wherein an angle between the bottom portion and the wall portion is not a right angle, and wherein the wall portions facing each other are inclined with respect to the bottom portion toward each other, such that laser light reflected by the wall portion proceeds toward a side opposite to the opened surface to the detector . a main body ; a water accommodation unit formed in the main body; a laser for irradiating light toward the water accommodation unit ; a detector for detecting a laser speckle at every set time period that is set in advance, the laser speckle being generated due to multiple scattering of the light in the water; a controller for estimating existence of impurities in the water in real-time by using the detected laser speckle; and a calibration unit for controlling the laser or the detector such that an intensity of light irradiated from the laser and measured by the detector is within a certain range set in advance, wherein the detector includes a sensor unit and a shutter formed at one side of the sensor unit to block the light incident in the sensor unit, the calibration unit is arranged to control a shutter speed of the shutter; wherein the water accommodation unit includes: a bottom portion formed in the main body; an opened surface opposite to the bottom portion ; and a wall portion formed to have a certain angle with respect to the bottom portion , wherein an angle between the bottom portion and the wall portion is not a right angle, and wherein the wall portions facing each other are inclined with respect to the bottom portion toward each other, such that laser light reflected by the wall portion proceeds toward a side opposite to the opened surface to the detector .
A computer implemented method of generating an aggregated stability map of one or more rotational sources associated with a heart rhythm disorder, the method comprising: accessing a plurality of rotational area profile maps (222, 224,...226, 326, 910), each of the rotational area profile maps associated with a respective one of a plurality of analysis intervals , each of the rotational area profile maps including rotation intensity values for a plurality of locations associated with rotation of the one or more rotational sources; and generating an aggregated stability map based on the plurality of rotational area profile maps (222, 224, ...226, 326, 910), the aggregated stability map including a plurality of locations (x-y), each location (x-y) of the plurality of locations in the aggregated stability map including a rotation intensity value that is based at least on a selected filter level (L=1...N, 501, 505) of highest rotation intensity values among a total number of rotation intensity values from corresponding locations of the plurality of rotational area profile maps (222, 224,...226, 326, 910), the selected filter level (L, 501, 505) being selectable from a plurality of filter levels (N). accessing a plurality of rotational area profile maps (222, 224,...226, 326, 910), each of the rotational area profile maps associated with a respective one of a plurality of analysis intervals , each of the rotational area profile maps including rotation intensity values for a plurality of locations associated with rotation of the one or more rotational sources; and generating an aggregated stability map based on the plurality of rotational area profile maps (222, 224, ...226, 326, 910), the aggregated stability map including a plurality of locations (x-y), each location (x-y) of the plurality of locations in the aggregated stability map including a rotation intensity value that is based at least on a selected filter level (L=1...N, 501, 505) of highest rotation intensity values among a total number of rotation intensity values from corresponding locations of the plurality of rotational area profile maps (222, 224,...226, 326, 910), the selected filter level (L, 501, 505) being selectable from a plurality of filter levels (N).
Articulated arm control for the articulated arm of a concrete pump, wherein the articulated arm comprises a rotating support rotatable about a vertical axis (A) and at least two segments (4 - 7) that can be pivoted by means of articulations (B - E) about horizontal axes, wherein the rotating support is movable via an actuator about the vertical axis (A) and the segments (4 - 7) are pivotable via actuators (14 - 17) about the horizontal axes, wherein sensors (18 - 21) preferably are provided to determine the angle of rotation of the rotating support and to determine the articulation angles of the articulations (B - E), wherein the articulated arm control is used to control the actuators (14 - 17) and comprises a geometrical control, which produces from input values to a target TCP movement a trajectory with target values for the movement of the rotating support and/or of the articulations (B - E), wherein the geometrical control determines the trajectory by solving an optimisation problem, wherein the optimisation problem as first objective function minimises a deviation between the target TCP movement and a TCP movement resulting due to the trajectory in a physical model of the articulated arm and as second objective function minimises a deviation of a configuration of the articulated arm from a target configuration, characterised in that the target configuration is selectable from several preset different target configurations and/or is variable. wherein the articulated arm control is used to control the actuators (14 - 17) and comprises a geometrical control, which produces from input values to a target TCP movement a trajectory with target values for the movement of the rotating support and/or of the articulations (B - E), wherein the geometrical control determines the trajectory by solving an optimisation problem, wherein the optimisation problem as first objective function minimises a deviation between the target TCP movement and a TCP movement resulting due to the trajectory in a physical model of the articulated arm and as second objective function minimises a deviation of a configuration of the articulated arm from a target configuration, characterised in that the target configuration is selectable from several preset different target configurations and/or is variable.
An electrical outlet assembly, comprising: an outlet housing having an outer support arm and an inner support arm , the outer and inner support arms defining a socket receptacle , the inner and outer support arms having rotational support members being at least partially circular in profile; a rotary socket having at least one plug receiver for receiving an electrical plug, the rotary socket comprising a socket casing and rotary contacts ; characterized in that the inner and outer support arms comprise fixed electrical contact assemblies , each fixed electrical contact assembly including an electrical contact plate ; in that the rotary socket further comprises rotational support members having a substantially circular outer surface extending outwardly from sidewalls of the socket casing , and first and second rotary contact plates attached thereto and rotationally supported by the rotational support members ; and in that the rotary contacts are affixed to the first and second rotary contact plates respectively, and each of the electrical contact plates extends over at least an arcuate surface shape so as to maintain electrical contact between respective ones of the rotary contacts and electrical contact plates through a predetermined range of rotation of the rotary socket. an outlet housing having an outer support arm and an inner support arm , the outer and inner support arms defining a socket receptacle , the inner and outer support arms having rotational support members being at least partially circular in profile; a rotary socket having at least one plug receiver for receiving an electrical plug, the rotary socket comprising a socket casing and rotary contacts ; characterized in that the inner and outer support arms comprise fixed electrical contact assemblies , each fixed electrical contact assembly including an electrical contact plate ; in that the rotary socket further comprises rotational support members having a substantially circular outer surface extending outwardly from sidewalls of the socket casing , and first and second rotary contact plates attached thereto and rotationally supported by the rotational support members ; and in that the rotary contacts are affixed to the first and second rotary contact plates respectively, and each of the electrical contact plates extends over at least an arcuate surface shape so as to maintain electrical contact between respective ones of the rotary contacts and electrical contact plates through a predetermined range of rotation of the rotary socket.