mhurhangee/ep-ind-claims huggingface dataset:
A method for compensating for bias of a Coriolis vibratory gyroscope having a control unit, a frame, and an element attached to the frame by a spring system that constrains movement of the element to within a plane formed by a first axis and a second axis, wherein the control unit is arranged to move the element linearly in a direction along a drive axis, the method comprising: generating bias measurements in a direction along a sense axis for a plurality of drive angles using the Coriolis vibratory gyroscope, wherein each drive angle in the plurality of drive angles is the angle of the drive axis with respect to the first axis, and wherein the drive axis and the sense axis that is substantially orthogonal to the drive axis form a rotated frame of reference with respect to a frame of reference formed by the first axis and the second axis that is orthogonal to the first axis, the rotation of the rotated frame of reference being about a third axis that is substantially perpendicular to the plane formed by the first axis and the second axis; identifying a set of equations for the bias of the Coriolis vibratory gyroscope using a model for motion of the Coriolis vibratory gyroscope in which the set of equations includes a set of parameters for the bias of the Coriolis vibratory gyroscope; and identifying a set of values for the set of parameters using the bias measurements, an iterative algorithm and the set of equations. generating bias measurements in a direction along a sense axis for a plurality of drive angles using the Coriolis vibratory gyroscope, wherein each drive angle in the plurality of drive angles is the angle of the drive axis with respect to the first axis, and wherein the drive axis and the sense axis that is substantially orthogonal to the drive axis form a rotated frame of reference with respect to a frame of reference formed by the first axis and the second axis that is orthogonal to the first axis, the rotation of the rotated frame of reference being about a third axis that is substantially perpendicular to the plane formed by the first axis and the second axis; identifying a set of equations for the bias of the Coriolis vibratory gyroscope using a model for motion of the Coriolis vibratory gyroscope in which the set of equations includes a set of parameters for the bias of the Coriolis vibratory gyroscope; and identifying a set of values for the set of parameters using the bias measurements, an iterative algorithm and the set of equations.
A compound of formula Z having an A ring, a B ring, a C ring, and a D ring, or a salt thereof, wherein: Z is: X in each instance is independently CR 6; Y in each instance is independently selected from the group consisting of NR 6, O, S, C(R 6) 2, and CR 7, with the proviso that the Y between the D ring and the A ring is O; A 1, A 2, A 3, A 4, and A 5 in each instance are independently selected from the group consisting of N and C, with the proviso that A 1, A 2, A 3, and A 4 on the A ring are each C and A 5 on the A ring is N; R 1, R 2, R 3, R 4, R 5, and R 6, when present, are in each instance independently selected from the group consisting of hydrogen, hydroxy, acetyl, halo, and carboxyl; a substituted or unsubstituted moiety selected from the group consisting of amino, alkyl, alkoxy, carboxyalkyl, acyl, acylamino, aryl, arylalkyl, heteroalkyl, heteroalkoxy, heterocarboxyalkyl, heteroacyl, heteroacylamino, heteroaryl, and heteroarylalkyl; and any combination of the foregoing, with the proviso that any of R 1, R 2, R 3, R 4, and/or R 5 on a given ring is absent when A 1, A 2, A 3, A 4, and/or A 5 on the given ring, respectively, is N; and R 7 in each instance is independently selected from the group consisting of =O, =S, and =NR 6. Z is: X in each instance is independently CR 6; Y in each instance is independently selected from the group consisting of NR 6, O, S, C(R 6) 2, and CR 7, with the proviso that the Y between the D ring and the A ring is O; A 1, A 2, A 3, A 4, and A 5 in each instance are independently selected from the group consisting of N and C, with the proviso that A 1, A 2, A 3, and A 4 on the A ring are each C and A 5 on the A ring is N; R 1, R 2, R 3, R 4, R 5, and R 6, when present, are in each instance independently selected from the group consisting of hydrogen, hydroxy, acetyl, halo, and carboxyl; a substituted or unsubstituted moiety selected from the group consisting of amino, alkyl, alkoxy, carboxyalkyl, acyl, acylamino, aryl, arylalkyl, heteroalkyl, heteroalkoxy, heterocarboxyalkyl, heteroacyl, heteroacylamino, heteroaryl, and heteroarylalkyl; and any combination of the foregoing, with the proviso that any of R 1, R 2, R 3, R 4, and/or R 5 on a given ring is absent when A 1, A 2, A 3, A 4, and/or A 5 on the given ring, respectively, is N; and R 7 in each instance is independently selected from the group consisting of =O, =S, and =NR 6.
An umbrella case configured to hold an umbrella having a rigid shaft with a handle (116, 117) at one end and a spike at the other end, the umbrella case comprising an umbrella holding assembly comprising a generally tubular sheath having an open end and a spike-receiving portion defining a spike-receiving aperture at the other end, wherein the sheath and the spike-receiving portion are formed of an elastic material configured to be elastically stretched upon application of a longitudinal force, in use, thereby to increase the effective length (113, 114) of the umbrella holding assembly to accommodate the length of the umbrella held therein with the spike extending through the spike-receiving portion.
A drive mechanism for disconnecting a switch, comprising - a first shaft rotatable along a horizontal axis, - a handle for rotating the first shaft, - a pusher disposed within the first shaft mechanically coupled to a spring disposed therein, wherein the spring is coupled to the pusher at a first end and mechanically coupled to an extension of the first shaft at a second end, characterised by further comprising - an assembly coupled to the extension of the first shaft, the assembly coupled to a second shaft through a rotary bushing and a coupler disposed within the second shaft for transferring a motion of the first shaft to the second shaft, such that the second shaft rotates between two or more positions, - a pin engaged with the pusher, the pin passing through the first shaft, wherein the pin is engaged in a bush having a plurality of engagement slots for preventing movement of the first shaft and the second shaft, - the second shaft comprising one or more contact blades for contacting with one or more contacts (50,52). - a first shaft rotatable along a horizontal axis, - a handle for rotating the first shaft, - a pusher disposed within the first shaft mechanically coupled to a spring disposed therein, wherein the spring is coupled to the pusher at a first end and mechanically coupled to an extension of the first shaft at a second end, - an assembly coupled to the extension of the first shaft, the assembly coupled to a second shaft through a rotary bushing and a coupler disposed within the second shaft for transferring a motion of the first shaft to the second shaft, such that the second shaft rotates between two or more positions, - a pin engaged with the pusher, the pin passing through the first shaft, wherein - the second shaft comprising one or more contact blades for contacting with one or more contacts (50,52).
A process for obtaining and selecting yeast strains able to ferment arabinose, glucose and xylose in the presence of acetic acid in non-dissociated form comprising: - the chromosomal integration of araA, araB and araD genes, advantageously araA of B. licheniformis, araB and araD of E. Coli, in a yeast strain able to ferment xylose in the presence of acetic acid in non-dissociated form and having at least one inactivated or deleted GRE3 gene; - putting the transformed strains into a direct culture in a medium containing arabinose as the sole carbon source for the selection of strains able to metabolize the said arabinose; - optionally selecting transformed strains having metabolized arabinose for their aldose reductase activity less than or equal to 0.002 U / g protein, or even less than or equal to 0.0005 U / g of protein. - the chromosomal integration of araA, araB and araD genes, advantageously araA of B. licheniformis, araB and araD of E. Coli, in a yeast strain able to ferment xylose in the presence of acetic acid in non-dissociated form and having at least one inactivated or deleted GRE3 gene; - putting the transformed strains into a direct culture in a medium containing arabinose as the sole carbon source for the selection of strains able to metabolize the said arabinose; - optionally selecting transformed strains having metabolized arabinose for their aldose reductase activity less than or equal to 0.002 U / g protein, or even less than or equal to 0.0005 U / g of protein.
A system comprising: a physiologic sensing circuit (705; 805) configured to generate physiologic data for a subject, wherein the physiologic sensing circuit is included in a first implantable or wearable medical device configured to deliver device-based therapy to a patient (210; 801); a controller circuit configured to generate an indication of a device-based therapy decision of the first implantable or wearable medical device (210; 801) as to whether therapy was delivered or inhibited; and a processor circuit (710; 810) including: a data parsing circuit (715; 815) configured to parse the physiologic data to identify one or more physiologic events; a report generation circuit (720; 820) configured to associate narrative text with the identified physiologic events and the device-based therapy decision according to a text generating rule, wherein at least a portion of the text generating rule is specific to a model type of the first implantable or wearable medical device (210; 801); and generate a narrative report for the identified physiologic events and the device-based therapy decision using the narrative text. a physiologic sensing circuit (705; 805) configured to generate physiologic data for a subject, wherein the physiologic sensing circuit is included in a first implantable or wearable medical device configured to deliver device-based therapy to a patient (210; 801); a controller circuit configured to generate an indication of a device-based therapy decision of the first implantable or wearable medical device (210; 801) as to whether therapy was delivered or inhibited; and a processor circuit (710; 810) including: a data parsing circuit (715; 815) configured to parse the physiologic data to identify one or more physiologic events; a report generation circuit (720; 820) configured to associate narrative text with the identified physiologic events and the device-based therapy decision according to a text generating rule, wherein at least a portion of the text generating rule is specific to a model type of the first implantable or wearable medical device (210; 801); and generate a narrative report for the identified physiologic events and the device-based therapy decision using the narrative text. a data parsing circuit (715; 815) configured to parse the physiologic data to identify one or more physiologic events; a report generation circuit (720; 820) configured to associate narrative text with the identified physiologic events and the device-based therapy decision according to a text generating rule, wherein at least a portion of the text generating rule is specific to a model type of the first implantable or wearable medical device (210; 801); and generate a narrative report for the identified physiologic events and the device-based therapy decision using the narrative text.
A method of managing the mobility of a Mobile Access Router, MAR, within a Multi-Protocol Label Switching, MPLS, domain that includes a plurality of Access Routers, ARs, communicatively coupled to a Mobility Anchor Point, MAP, of the MPLS domain, said method implemented in the MAP and comprising: in response to said MAR initially attaching to the MPLS domain through a first one of the ARs in the plurality of ARs, binding a MAR identifier to an MPLS label for use in routing to or from the MAR within the MPLS domain and establishing a plurality of Label Switched Paths, LSPs, bound to the MPLS label of the MAR, including establishing an active LSP for the MAR through the first AR and establishing an inactive LSP for the MAR to each remaining AR, so that each remaining AR in the plurality of ARs has an established LSP for the MAR that can be activated later in response to the MAR subsequently attaching to the remaining AR; sending data to the MAR and receiving data from the MAR, as needed, via the active LSP; and changing which LSP is considered by the MAP to be the active LSP for the MAR, responsive to detecting movement by the MAR from one AR to another; wherein establishing each inactive LSP comprises the MAP sending a path setup request message to a respective one of the remaining ARs that includes the MPLS label for the MAR and a path state indicator indicating that the requested path is to be established as an inactive path, and further includes MAR identification information, so that the remaining AR can identify the MAR upon any subsequent attachment and, in response to such identification, activate the inactive LSP for the MAR. in response to said MAR initially attaching to the MPLS domain through a first one of the ARs in the plurality of ARs, binding a MAR identifier to an MPLS label for use in routing to or from the MAR within the MPLS domain and establishing a plurality of Label Switched Paths, LSPs, bound to the MPLS label of the MAR, including establishing an active LSP for the MAR through the first AR and establishing an inactive LSP for the MAR to each remaining AR, so that each remaining AR in the plurality of ARs has an established LSP for the MAR that can be activated later in response to the MAR subsequently attaching to the remaining AR; sending data to the MAR and receiving data from the MAR, as needed, via the active LSP; and changing which LSP is considered by the MAP to be the active LSP for the MAR, responsive to detecting movement by the MAR from one AR to another; wherein establishing each inactive LSP comprises the MAP sending a path setup request message to a respective one of the remaining ARs that includes the MPLS label for the MAR and a path state indicator indicating that the requested path is to be established as an inactive path, and further includes MAR identification information, so that the remaining AR can identify the MAR upon any subsequent attachment and, in response to such identification, activate the inactive LSP for the MAR.
A method of controlling an induced longitudinally oriented, cross sectional heating profile in an electrically conductive workpiece (90e or 90f) without flux concentrators or Faraday's rings, the method comprising the step of: positioning the electrically conductive workpiece in a solenoidal type induction coil so that a coil overhang region (x oh3, or x oh4) exists adjacent to at least one end of the electrically conductive workpiece; characterised by positioning at least one flux compensator (40a, 40b, 40c or 40d) formed from a solid or hollow disc in the coil overhang region with one end of the at least one flux compensator proximate to the at least one end of the electrically conductive workpiece to alter the induced longitudinally oriented, cross sectional heating profile in the at least one end of the electrically conductive workpiece; and supplying alternating current to the solenoidal type induction coil to localise in the electrically conductive workpiece or the at least one flux compensator an electromagnetic end effect zone and create the induced longitudinally oriented, cross sectional heating profile in the electrically conductive workpiece. positioning the electrically conductive workpiece in a solenoidal type induction coil so that a coil overhang region (x oh3, or x oh4) exists adjacent to at least one end of the electrically conductive workpiece; positioning at least one flux compensator (40a, 40b, 40c or 40d) formed from a solid or hollow disc in the coil overhang region with one end of the at least one flux compensator proximate to the at least one end of the electrically conductive workpiece to alter the induced longitudinally oriented, cross sectional heating profile in the at least one end of the electrically conductive workpiece; and supplying alternating current to the solenoidal type induction coil to localise in the electrically conductive workpiece or the at least one flux compensator an electromagnetic end effect zone and create the induced longitudinally oriented, cross sectional heating profile in the electrically conductive workpiece.
A gas concentration sensor comprising: a sensor enclosure that includes a cylindrical body; an ultrasonic transducer disposed at a first end of the cylindrical body; an ultrasonic wave reflecting surface disposed at a second end of the cylindrical body, the ultrasonic wave reflecting surface intersecting an axial direction of the cylindrical body; and a plurality of ventilation holes disposed in a peripheral wall of the cylindrical body, wherein the plurality of ventilation holes have corresponding through lines each extending in a direction perpendicular to an axial section of the cylindrical body, the through lines of the plurality of ventilation holes passing through different locations, characterized in that each of the ventilation holes has a shape extending in the axial direction of the cylindrical body and has a length in the axial direction that is longer than a lateral length, and the ratio of the area of openings of all the ventilation holes with respect to the area of a peripheral face of the sensor enclosure is 6% or greater and 20% or less. a sensor enclosure that includes a cylindrical body; an ultrasonic transducer disposed at a first end of the cylindrical body; an ultrasonic wave reflecting surface disposed at a second end of the cylindrical body, the ultrasonic wave reflecting surface intersecting an axial direction of the cylindrical body; and a plurality of ventilation holes disposed in a peripheral wall of the cylindrical body, wherein the plurality of ventilation holes have corresponding through lines each extending in a direction perpendicular to an axial section of the cylindrical body, the through lines of the plurality of ventilation holes passing through different locations, characterized in that each of the ventilation holes has a shape extending in the axial direction of the cylindrical body and has a length in the axial direction that is longer than a lateral length, and the ratio of the area of openings of all the ventilation holes with respect to the area of a peripheral face of the sensor enclosure is 6% or greater and 20% or less.
A method for tracking an International Mobile Equipment Identity, IMEI, of User Equipment, UE, comprising: Obtaining, by a Radio Network Controller, RNC, an IMEI of UE from an identity response message, which is sent by the UE to respond a non-access stratum identity request message, after success of signalling connection of a UE call when the RNC establishes Radio Resource Control, RRC, connection with the UE; and Saving, by the RNC, the obtained IMEI in a user log generated in a process of the UE call; wherein the user log comprises a user identifier and signalling tracking of key behaviours; and the signalling tracking of key behaviours comprises: switching of a process of UE call, redistribution of radio resources, cell update-related lub interfaces, Uu interfaces and lu interface signalling. Obtaining, by a Radio Network Controller, RNC, an IMEI of UE from an identity response message, which is sent by the UE to respond a non-access stratum identity request message, after success of signalling connection of a UE call when the RNC establishes Radio Resource Control, RRC, connection with the UE; and Saving, by the RNC, the obtained IMEI in a user log generated in a process of the UE call; wherein the user log comprises a user identifier and signalling tracking of key behaviours; and the signalling tracking of key behaviours comprises: switching of a process of UE call, redistribution of radio resources, cell update-related lub interfaces, Uu interfaces and lu interface signalling.
A diaphragm pump comprising: a fluid chamber; a diaphragm located in the fluid chamber; wherein the diaphragm is a flexible disc-shaped structure made from an elastomer material; wherein the diaphragm has an outer edge; wherein the diaphragm includes a first surface; characterized by a layer of fabric that is applied on the first surface of the diaphragm; wherein the fabric is composed of woven aramid based fibers; and wherein the fabric is applied to the first surface of the diaphragm by a means selected from the group consisting of chemical bonding, chemical adhesion, over molding the diaphragm, an adhesive, and mechanical fastener. a fluid chamber; a diaphragm located in the fluid chamber; wherein the diaphragm is a flexible disc-shaped structure made from an elastomer material; wherein the diaphragm has an outer edge; wherein the diaphragm includes a first surface; characterized by a layer of fabric that is applied on the first surface of the diaphragm; wherein the fabric is composed of woven aramid based fibers; and wherein the fabric is applied to the first surface of the diaphragm by a means selected from the group consisting of chemical bonding, chemical adhesion, over molding the diaphragm, an adhesive, and mechanical fastener.
A computer-implemented method of processing image data and detecting a first region of an optical coherence tomography, OCT, image represented by the image data, the region to be excluded from a quantification analysis of the OCT image, the quantification analysis including a layer segmentation, the method comprising: receiving the image data by a computer, the image data representing a two-dimensional view of a subject including at least an axial dimension; locating, in the two-dimensional view, the first region to be excluded from the analysis of the OCT image, the first region being capable to undesirably affect the quantification analysis of the subject, and a second, remaining region, wherein cut lines establish the width of the first region, wherein said locating the first region comprises detecting landmarks and detecting two markers, by recognizing gradients exceeding a predetermined threshold, and wherein the cut lines extend through the detected markers in the axial direction; and performing the quantification analysis to detect a layer boundary on the second, remaining region that is outside of the first region to be excluded from the analysis. receiving the image data by a computer, the image data representing a two-dimensional view of a subject including at least an axial dimension; locating, in the two-dimensional view, the first region to be excluded from the analysis of the OCT image, the first region being capable to undesirably affect the quantification analysis of the subject, and a second, remaining region, wherein cut lines establish the width of the first region, wherein said locating the first region comprises detecting landmarks and detecting two markers, by recognizing gradients exceeding a predetermined threshold, and wherein the cut lines extend through the detected markers in the axial direction; and performing the quantification analysis to detect a layer boundary on the second, remaining region that is outside of the first region to be excluded from the analysis.