mhurhangee/ep-ind-claims huggingface dataset:
An implant comprising: electrically-conductive closed loops (300A, 300B, 300C, 300D) forming an apertured wall of the implant with an interior volume, each of said loops being formed from loop portions providing electrically- conductive current pathways within which eddy currents are liable to be induced when subjected to a time-dependent external magnetic field, each of said loops consists of a first current pathway and a second current pathway wherein said first current pathway and said second current pathway are arranged such that, regardless of the direction of said external magnetic field, the direction of the eddy current that would be induced by said field in said second current pathway is the reverse of the direction of the eddy current that would simultaneously be induced by said field in said first current pathway, thereby to prevent flow of eddy currents in each of said loops. electrically-conductive closed loops (300A, 300B, 300C, 300D) forming an apertured wall of the implant with an interior volume, each of said loops being formed from loop portions providing electrically- conductive current pathways within which eddy currents are liable to be induced when subjected to a time-dependent external magnetic field, each of said loops consists of a first current pathway and a second current pathway wherein said first current pathway and said second current pathway are arranged such that, regardless of the direction of said external magnetic field, the direction of the eddy current that would be induced by said field in said second current pathway is the reverse of the direction of the eddy current that would simultaneously be induced by said field in said first current pathway, thereby to prevent flow of eddy currents in each of said loops.
Adapter of an agricultural attachment, having a first, cylindrically contoured section, the external diameter of which is designed to couple the agricultural attachment to a US quick-hitch attachment system of an agricultural support vehicle, having a second, spherically contoured section, the external dimension of which is designed to couple the agricultural attachment to a European lower-link attachment system of an agricultural support vehicle, characterized in that the adapter is formed as a one-piece adapter bush, which has a recess via which the same can be pushed onto a carrier pin, and the two sections (27a, 27b) are arranged beside each other. having a first, cylindrically contoured section, the external diameter of which is designed to couple the agricultural attachment to a US quick-hitch attachment system of an agricultural support vehicle, having a second, spherically contoured section, the external dimension of which is designed to couple the agricultural attachment to a European lower-link attachment system of an agricultural support vehicle,
A method to be performed by a wireless station, the method comprising: transmitting (306, 308) an Add-Traffic-Specification, ADDTS, frame to establish a traffic stream, the ADDTS frame comprising a traffic specification element and an Upper-Layer-Identification, UPID, element, the traffic specification element configured to indicate a Traffic Identifier, TID, the UPID element configured to indicate a protocol to handle Media-Access-Control, MAC, service data units, MSDUs, corresponding to the TID, the UPID element comprising a Logical-Link-Control, LLC, header field, and a no-LLC field, the LLC header field comprising values of a LLC header, and the no-LLC field configured to indicate that said MSDUs are not to include the LLC header; and after establishing the traffic stream, transmitting the MSDUs corresponding to the TID without the LLC header. transmitting (306, 308) an Add-Traffic-Specification, ADDTS, frame to establish a traffic stream, the ADDTS frame comprising a traffic specification element and an Upper-Layer-Identification, UPID, element, the traffic specification element configured to indicate a Traffic Identifier, TID, the UPID element configured to indicate a protocol to handle Media-Access-Control, MAC, service data units, MSDUs, corresponding to the TID, the UPID element comprising a Logical-Link-Control, LLC, header field, and a no-LLC field, the LLC header field comprising values of a LLC header, and the no-LLC field configured to indicate that said MSDUs are not to include the LLC header; and after establishing the traffic stream, transmitting the MSDUs corresponding to the TID without the LLC header.
Insulation material for an electrical rotating machine, comprising a curable matrix material with a curing agent and a filler embedded therein, there being present in the filler at least one particle fraction made fundamentally of n-doped metal oxide, which under oxidizing atmosphere at high temperature form surface boundary layers with oxygen vacancies, which in the case of partial discharges widen into lower layers and so give rise locally to a high-resistance region, which through n-conducting doping with an element selected from the group of the following elements: antimony, fluorine, chlorine, tungsten, molybdenum, iron, phosphorus, sulfur, nickel, alone or in any desired combinations, are electrically conductive and self-sustainingly passivated with respect to partial discharges.
A resistive motion support mechanism joined to a mounting surface and to a base for providing resistive support to the mounting surface as the mounting surface undergoes one or both of rotational and tilt movement relative to the base, the motion support mechanism comprising: a support bearing connected to the mounting surface and to the base which permits one or both of tilting and rotational motion of the mounting surface relative to the base, wherein the base includes a shoulder portion that is friction fit into the support bearing such that the base does not move relative to the support bearing; a pivot ball functionally attached to a portion of the base; and, a resistance cartridge fixedly connected to the mounting surface such that said resistance cartridge undergoes movement relative to the base and applies a resistive force on the base as the mounting surface undergoes said one or both of rotational and tilt movement; wherein said resistance cartridge includes: a cartridge housing; and, a resilient member in contact relation with said pivot ball and with a wall of said housing such that said resilient member is compressed by the relative movement between said resistance cartridge and said pivot ball to thereby provide the resistive support to the mounting surface. a support bearing connected to the mounting surface and to the base which permits one or both of tilting and rotational motion of the mounting surface relative to the base, wherein the base includes a shoulder portion that is friction fit into the support bearing such that the base does not move relative to the support bearing; a pivot ball functionally attached to a portion of the base; and, a resistance cartridge fixedly connected to the mounting surface such that said resistance cartridge undergoes movement relative to the base and applies a resistive force on the base as the mounting surface undergoes said one or both of rotational and tilt movement; wherein said resistance cartridge includes: a cartridge housing; and, a resilient member in contact relation with said pivot ball and with a wall of said housing such that said resilient member is compressed by the relative movement between said resistance cartridge and said pivot ball to thereby provide the resistive support to the mounting surface. a cartridge housing; and, a resilient member in contact relation with said pivot ball and with a wall of said housing such that said resilient member is compressed by the relative movement between said resistance cartridge and said pivot ball to thereby provide the resistive support to the mounting surface.
A pet carrying backpack comprising a backpack body comprising a bottom panel, a front panel, a back panel, a right-side panel, and a left-side panel (105, 107) that collectively form an interior compartment, the backpack body further comprising a top portion having a collar (253, 353) forming an opening which is configured to have a head of an animal disposed within the interior protrude, the collar (253, 353) being adjustable; shoulder straps disposed on and extending from the front panel; paw holes (148, 248) disposed on a front of the backpack body above the shoulder straps and below the collar (253, 353), the paw holes (148, 248) being configured to accommodate paws or legs of the animal; further comprising contouring straps that are configured to shape the interior compartment of the backpack; and a pet carrying platform disposed on or within the bottom panel. a backpack body comprising a bottom panel, a front panel, a back panel, a right-side panel, and a left-side panel (105, 107) that collectively form an interior compartment, the backpack body further comprising a top portion having a collar (253, 353) forming an opening which is configured to have a head of an animal disposed within the interior protrude, the collar (253, 353) being adjustable; shoulder straps disposed on and extending from the front panel; paw holes (148, 248) disposed on a front of the backpack body above the shoulder straps and below the collar (253, 353), the paw holes (148, 248) being configured to accommodate paws or legs of the animal; further comprising contouring straps that are configured to shape the interior compartment of the backpack; and a pet carrying platform disposed on or within the bottom panel.
An implantable posterior cervical stabilization system (100, 400, 800) comprising a lateral mass component (104, 106), the lateral mass component (104, 106) comprising: a first end, a second end being opposed to the first end, and a bottom surface; a lateral flange extending from the bottom surface adjacent the first end, the lateral flange being disposable to orientate toward a lateral mass of a vertebra for centering the lateral mass component (104, 106), the lateral flange having a first height; an extension extending from the bottom surface, the extension having a second height less than the first height; and a predrilled hole extending through the lateral mass component from the bottom surface, the predrilled hole being angled toward the lateral flange, wherein the predrilled hole is angled at an angle within the range of about 20-40 degrees in a lateral direction. a first end, a second end being opposed to the first end, and a bottom surface; a lateral flange extending from the bottom surface adjacent the first end, the lateral flange being disposable to orientate toward a lateral mass of a vertebra for centering the lateral mass component (104, 106), the lateral flange having a first height; an extension extending from the bottom surface, the extension having a second height less than the first height; and a predrilled hole extending through the lateral mass component from the bottom surface, the predrilled hole being angled toward the lateral flange, wherein the predrilled hole is angled at an angle within the range of about 20-40 degrees in a lateral direction.
A method in a receiver for cell search to find an actual base station having a carrier frequency in a radio communications network, the method comprising: - detecting a first signal representative of a base station (12,14,16,18) by performing: - slot synchronisation; - frame synchronization; - cell identification; and - measurement of a signal quality of the first signal and comparison of the measured signal quality with a first threshold value; - when a first signal having a signal quality that is greater than the first threshold value has been detected, searching for at least one second signal representative of a base station (12,14,16,18) for at least one frequency offset comprised in a set of offsets, - when one or more second signals are detected, selecting the signal with the highest signal quality, and detecting a broadcast radio channel representative of a base station (12,14,16,18) for the selected signal. - detecting a first signal representative of a base station (12,14,16,18) by performing: - slot synchronisation; - frame synchronization; - cell identification; and - measurement of a signal quality of the first signal and comparison of the measured signal quality with a first threshold value; - slot synchronisation; - frame synchronization; - cell identification; and - measurement of a signal quality of the first signal and comparison of the measured signal quality with a first threshold value; - when a first signal having a signal quality that is greater than the first threshold value has been detected, searching for at least one second signal representative of a base station (12,14,16,18) for at least one frequency offset comprised in a set of offsets, - when one or more second signals are detected, selecting the signal with the highest signal quality, and detecting a broadcast radio channel representative of a base station (12,14,16,18) for the selected signal.
Compressed-air supply arrangement for a train assembly composed of a plurality of rail vehicle cars (1, 2, 3) coupled to one another, including several with compressed-air consumers, comprising at least two compressed-air sources (4, 5) and a compressed-air line suitable for running through the entire train assembly, wherein the compressed-air line is provided with flexible line sections for connecting the rail vehicle cars (1, 2, 3) and is connected to these flexible line sections via coupling points, wherein the at least two compressed-air sources (4, 5) feed the compressed-air line, characterized in that in the compressed-air lines provided for rail vehicle cars having compressed-air consumers in each case, a flow limiting valve blocking in the direction of the associated coupling point and having a restrictor respectively arranged in parallel is provided on the car before the coupling points of the compressed-air line to flexible line sections connecting the rail vehicle cars (1, 2, 3).
An aircraft cargo management system comprising: an air cushion cargo shuttle; an air blower configured to blow air beneath the air cushion cargo shuttle; and a shuttle drive unit that interacts with a linear guide rail and configured to cause linear motion, wherein the shuttle drive unit is configured for self-propulsion, wherein the shuttle drive unit comprises a pinion that interfaces with a rack. an air cushion cargo shuttle; an air blower configured to blow air beneath the air cushion cargo shuttle; and a shuttle drive unit that interacts with a linear guide rail and configured to cause linear motion, wherein the shuttle drive unit is configured for self-propulsion, wherein the shuttle drive unit comprises a pinion that interfaces with a rack.
A mobile communication system, comprising: a first base station configured to transmit at least part of a first data set of data segments arranged in a first sequence to a user terminal; and a second base station configured to transmit at least part of said first data set of data segments arranged in a second sequence to said user terminal, said second sequence of said first data set being an inverse of said first sequence of said first data set, a third base station configured to transmit at least part of a second data set of data segments arranged in a first sequence to said user terminal, said second data set comprising different data segments than said first data set, wherein one of said first base station and said second base station is configured to transmit at least part of said second data set of data segments arranged in a second sequence after said user terminal has acknowledged receipt of said first data set, said first sequence of said second data set being an inverse of said second sequence of said second data set. a first base station configured to transmit at least part of a first data set of data segments arranged in a first sequence to a user terminal; and a second base station configured to transmit at least part of said first data set of data segments arranged in a second sequence to said user terminal, said second sequence of said first data set being an inverse of said first sequence of said first data set, a third base station configured to transmit at least part of a second data set of data segments arranged in a first sequence to said user terminal, said second data set comprising different data segments than said first data set, wherein one of said first base station and said second base station is configured to transmit at least part of said second data set of data segments arranged in a second sequence after said user terminal has acknowledged receipt of said first data set, said first sequence of said second data set being an inverse of said second sequence of said second data set.
A system for shaping a glass structure comprising: (a) a shaping mold; (b) a radiation heating source; and (c) a radiation shield; wherein the glass structure is positioned at a distance H from the radiation heating source, wherein the radiation shield is positioned between the radiation heating source and the glass structure, and wherein the radiation shield comprises an outer wall defining a cavity having a first opening disposed to face the glass structure and a second opening disposed to face the radiation heating source, the outer wall having a length L separating the first opening from the second opening, and wherein a ratio of the length L to the height H (L/H) is 0.4 or greater. (a) a shaping mold; (b) a radiation heating source; and (c) a radiation shield; wherein the glass structure is positioned at a distance H from the radiation heating source, wherein the radiation shield is positioned between the radiation heating source and the glass structure, and wherein the radiation shield comprises an outer wall defining a cavity having a first opening disposed to face the glass structure and a second opening disposed to face the radiation heating source, the outer wall having a length L separating the first opening from the second opening, and wherein a ratio of the length L to the height H (L/H) is 0.4 or greater.
A method for minimizing common mode interference in a physiological measurement system (108, 210, 312) having input channels and analog circuitry electrically coupled to electrodes for measuring an electrophysiological signal, the method comprising: receiving analog test signals at the input channels; generating response signals at the analog circuitry (204, 304) in response to receiving the analog test signals; converting each response signal into digital data samples; storing, in a memory of the physiological measurement system, the digital data samples in association with each of the input channels; analyzing the digital data samples for each of the input channels to determine a reference input channel; determining a set of digital filter coefficients for each input channel other than the reference input channel; and applying a filter (114, 308) to each input channel during operation of said physiological measurement system, wherein each filter operates according to a digital filter coefficient from the set of digital filter coefficients to minimize time-domain differences between the reference input channel and each input channel other than the reference input channel, characterised in that analyzing the digital data samples for each of the input channels to determine the reference input channel comprises one of: identifying a response signal corresponding to a last zero crossing; and identifying a response signal corresponding to a slowest slew rate. receiving analog test signals at the input channels; generating response signals at the analog circuitry (204, 304) in response to receiving the analog test signals; converting each response signal into digital data samples; storing, in a memory of the physiological measurement system, the digital data samples in association with each of the input channels; analyzing the digital data samples for each of the input channels to determine a reference input channel; determining a set of digital filter coefficients for each input channel other than the reference input channel; and applying a filter (114, 308) to each input channel during operation of said physiological measurement system, wherein each filter operates according to a digital filter coefficient from the set of digital filter coefficients to minimize time-domain differences between the reference input channel and each input channel other than the reference input channel, identifying a response signal corresponding to a last zero crossing; and identifying a response signal corresponding to a slowest slew rate.
A method comprising: forming a trench, the trench having a bottom and a sidewall (608, 804); forming a first diode electrode in the trench during a single damascene process, the first diode electrode having a first portion parallel to the bottom of the trench and a second portion parallel to the sidewall (610, 806, 1014); forming a first insulating region comprising a first insulating material in the trench during the single damascene process, the first insulating region having a first portion parallel to the bottom of the trench and a second portion parallel to the sidewall (612, 808, 1018); forming a second insulating region comprising a second insulating material in the trench during the single damascene process, the second insulating region having a first portion parallel to the bottom of the trench and a second portion parallel to the sidewall (614, 810, 1020); forming a second diode electrode in the trench during the single damascene process, the first insulating region and the second insulating region reside between the first diode electrode and the second diode electrode to form a metal-insulator-insulator-metal (MIIM) diode (616, 812, 1022); and forming a region of carbon in the trench during the single damascene process, at least a portion of the carbon is electrically in series with the MUM diode (602,816, 1012). forming a trench, the trench having a bottom and a sidewall (608, 804); forming a first diode electrode in the trench during a single damascene process, the first diode electrode having a first portion parallel to the bottom of the trench and a second portion parallel to the sidewall (610, 806, 1014); forming a first insulating region comprising a first insulating material in the trench during the single damascene process, the first insulating region having a first portion parallel to the bottom of the trench and a second portion parallel to the sidewall (612, 808, 1018); forming a second insulating region comprising a second insulating material in the trench during the single damascene process, the second insulating region having a first portion parallel to the bottom of the trench and a second portion parallel to the sidewall (614, 810, 1020); forming a second diode electrode in the trench during the single damascene process, the first insulating region and the second insulating region reside between the first diode electrode and the second diode electrode to form a metal-insulator-insulator-metal (MIIM) diode (616, 812, 1022); and forming a region of carbon in the trench during the single damascene process, at least a portion of the carbon is electrically in series with the MUM diode (602,816, 1012).