mhurhangee/patent-ind-claim-en huggingface dataset:
A propylene ethylene copolymer having: i) xylene soluble fraction at 25°C ranging from 14 wt% to 27 wt% ii) intrinsic viscosity of the fraction soluble in xylene at 25°C ranging from 1.0 to 2.4 dl/g; iii) melt flow rate, MFR, measured according to ISO 1133 at 230 °C with a load of 2.16 kg, ranging from 1.0 g/10 min to 50.0 g/10 min; iv) an ethylene derived units content ranging from 5.0 wt% to 12.0 wt% v) the ethylene derived units content on the fraction insoluble in xylene at 25°C ranging from 2.5 wt% to 6.0 wt%; vi) the ethylene derived units content on the fraction soluble in xylene at 25°C ranging from ranges from 17.2 wt% to 24.8wt%; vii) the C 13 NMR sequences PEP measured on the fraction insoluble in xylene at 25°C ranging from 3.5mol% to 5.5mol% and the C 13 NMR sequences PEP measured on the fraction soluble in xylene at 25°C ranging from 11.0 mol% to 14.2 mol%. i) xylene soluble fraction at 25°C ranging from 14 wt% to 27 wt% ii) intrinsic viscosity of the fraction soluble in xylene at 25°C ranging from 1.0 to 2.4 dl/g; iii) melt flow rate, MFR, measured according to ISO 1133 at 230 °C with a load of 2.16 kg, ranging from 1.0 g/10 min to 50.0 g/10 min; iv) an ethylene derived units content ranging from 5.0 wt% to 12.0 wt% v) the ethylene derived units content on the fraction insoluble in xylene at 25°C ranging from 2.5 wt% to 6.0 wt%; vi) the ethylene derived units content on the fraction soluble in xylene at 25°C ranging from ranges from 17.2 wt% to 24.8wt%; vii) the C 13 NMR sequences PEP measured on the fraction insoluble in xylene at 25°C ranging from 3.5mol% to 5.5mol% and the C 13 NMR sequences PEP measured on the fraction soluble in xylene at 25°C ranging from 11.0 mol% to 14.2 mol%.
Vehicle (FZ) with a rotationally movable actuating element (STE) and with a sensor arrangement for measuring an actuating angle (α) of the actuating element (STE), wherein the sensor arrangement • has a measuring acceleration sensor (MBS), which is fastened to the actuating element (STE), and • has a reference acceleration sensor (RBS), which is fastened immovably to the vehicle (FZ), wherein the sensor arrangement is configured • taking in account the direction of the acceleration due to gravity (g), to generate angle measurement data dependent on the actuating angle (α) and the vehicle position and • taking in account the direction of the acceleration due to gravity (g), to generate error measurement data dependent on the vehicle position, wherein the vehicle is configured for computer-aided calculation of the actuating angle (α) from the angle measurement data, taking into account the measurement error measurement data, characterised in that the vehicle is configured to calculate as actuating angle (α) at least one stop value for the actuating element (STE), which is measured when an increase in the actuating angle (α) is prevented by a stop. • has a measuring acceleration sensor (MBS), which is fastened to the actuating element (STE), and • has a reference acceleration sensor (RBS), which is fastened immovably to the vehicle (FZ), wherein the sensor arrangement is configured • taking in account the direction of the acceleration due to gravity (g), to generate angle measurement data dependent on the actuating angle (α) and the vehicle position and • taking in account the direction of the acceleration due to gravity (g), to generate error measurement data dependent on the vehicle position, • taking in account the direction of the acceleration due to gravity (g), to generate angle measurement data dependent on the actuating angle (α) and the vehicle position and • taking in account the direction of the acceleration due to gravity (g), to generate error measurement data dependent on the vehicle position, wherein the vehicle is configured for computer-aided calculation of the actuating angle (α) from the angle measurement data, taking into account the measurement error measurement data, characterised in that the vehicle is configured to calculate as actuating angle (α) at least one stop value for the actuating element (STE), which is measured when an increase in the actuating angle (α) is prevented by a stop.
A vertical production tubing for conveying a flowing two-phase fluid mixture , comprising of gas-liquid fluids (F), the tubing having an inner surface and upstream and downstream ends, the tubing comprising: one or more flow stabilizing devices positioned in the tubing along a structural support tube , the one or more flow stabilizing devices being configured and dimensioned to accelerate the velocity of the flowing two-phase fluid mixture in the tubing to sustain upward liquid flow, wherein at least one of the one or more flow stabilizing devices includes: a first portion facing upstream, wherein the distal end of the first portion forms a first apex that faces upstream; a second portion facing downstream, wherein the distal end of the second portion forms a second apex that faces downstream; a passageway extending from the first apex through the second apex ; characterized in that the structural support tube is attached directly to the second apex and extends axially from the second apex , wherein the structural support tube is disposed entirely within the tubing ; and wherein each of the flow stabilizing devices is dimensioned and configured so that the exterior surface of the flow stabilizing device does not touch the adjacent inner wall of the tubing , wherein the exterior surface of the first portion forms a solid surface that is configured to block and deflect the path of the flowing two-phase fluid mixture ; wherein a first portion of the mixture flows through the passageway; and wherein a second portion of the mixture flows around the flow stabilizing device . one or more flow stabilizing devices positioned in the tubing along a structural support tube , the one or more flow stabilizing devices being configured and dimensioned to accelerate the velocity of the flowing two-phase fluid mixture in the tubing to sustain upward liquid flow, a first portion facing upstream, wherein the distal end of the first portion forms a first apex that faces upstream; a second portion facing downstream, wherein the distal end of the second portion forms a second apex that faces downstream; a passageway extending from the first apex through the second apex ;
An apparatus comprising at least one filter, at least one image sensor and means for: activating the at least one filter wherein the at least one filter is positioned in front of the at least one image sensor and the at least one filter is configured to at least partially filter light such that the at least one filter has a spatial variation of transparency on an analogue scale across an area covered by the at least one filter; detecting an image captured by the at least one image sensor; and using information relating to the spatial variation of transparency of the at least one filter to determine sub-pixel information in the captured image. activating the at least one filter wherein the at least one filter is positioned in front of the at least one image sensor and the at least one filter is configured to at least partially filter light such that the at least one filter has a spatial variation of transparency on an analogue scale across an area covered by the at least one filter; detecting an image captured by the at least one image sensor; and using information relating to the spatial variation of transparency of the at least one filter to determine sub-pixel information in the captured image.
Timepiece movement comprising - a gear train , - a drive member to drive the gear train , - an escapement , - an oscillator arranged to cooperate with the escapement , - a control lever supporting an intermediate mobile which connects the escapement to the gear train , - a spring for periodic storage of energy arranged to act on the control lever , and - a locking member to lock and release the gear train , this locking member being controlled by the control lever , the timepiece movement being arranged to operate in a cycle comprising a first phase during which the locking member locks the gear train , allowing the spring for periodic storage of energy to relax and to move the control lever in a first direction in steps at the rate of the alternations of the oscillator until the locking member releases the gear train , and a second phase actuated by the release of the gear train during which the control lever is moved in the opposite direction to the first direction under the action of the gear train to charge the spring for periodic storage of energy and to return the locking member to a position where it will be able to lock the gear train again, characterised in that the locking member is a lever arranged to, during the first phase - be prevented by the control lever from releasing the gear train during a non-zero integer number N of alternation(s) of the oscillator , and - be driven by the control lever only after the N alternation(s) to release the gear train . - a gear train , - a drive member to drive the gear train , - an escapement , - an oscillator arranged to cooperate with the escapement , - a control lever supporting an intermediate mobile which connects the escapement to the gear train , - a spring for periodic storage of energy arranged to act on the control lever , and - a locking member to lock and release the gear train , this locking member being controlled by the control lever , - be prevented by the control lever from releasing the gear train during a non-zero integer number N of alternation(s) of the oscillator , and - be driven by the control lever only after the N alternation(s) to release the gear train .
Running gear for a rail vehicle comprising a bogie and a brake linkage , with at least one bearing element , wherein the brake linkage comprises a brake bridge , wherein the brake bridge is mounted at the bogie by means of the at least one bearing element and/or is connected to the bogie, wherein the at least one bearing element consists of a plastic, characterized in that the plastic is polyoxymethylene (POM) and/or that the plastic is a self-lubricating plastic.
A method, comprising: configuring, by one or more nodes in a high-availability cluster , a redundancy group that designates a primary node in the high-availability cluster and a backup node in the high-availability cluster; configuring, by the one or more nodes, physical interfaces to be included in a redundant interface for the redundancy group, wherein the redundant interface includes at least: a first interface between a first node in the high-availability cluster and a network device , and a second interface between a second node in the high-availability cluster and the network device, wherein the primary node is one of the first node or the second node and the backup node is the other one of the first node or the second node; configuring, by the first node, a wired interface of the first node as the first interface between the first node and the network device; and configuring, by the second node, a wireless interface of the second node as the second interface between the second node and the network device, wherein configuring the wireless interface is based on mapping the wireless interface to the redundant interface using a physical interface identifier and a redundant interface identifier based on receiving input that includes the physical interface identifier and the redundant interface identifier. configuring, by one or more nodes in a high-availability cluster , a redundancy group that designates a primary node in the high-availability cluster and a backup node in the high-availability cluster; configuring, by the one or more nodes, physical interfaces to be included in a redundant interface for the redundancy group, wherein the redundant interface includes at least: a first interface between a first node in the high-availability cluster and a network device , and a second interface between a second node in the high-availability cluster and the network device, wherein the primary node is one of the first node or the second node and the backup node is the other one of the first node or the second node; a first interface between a first node in the high-availability cluster and a network device , and a second interface between a second node in the high-availability cluster and the network device, wherein the primary node is one of the first node or the second node and the backup node is the other one of the first node or the second node; configuring, by the first node, a wired interface of the first node as the first interface between the first node and the network device; and configuring, by the second node, a wireless interface of the second node as the second interface between the second node and the network device, wherein configuring the wireless interface is based on mapping the wireless interface to the redundant interface using a physical interface identifier and a redundant interface identifier based on receiving input that includes the physical interface identifier and the redundant interface identifier.
A method for Optical Transport Network OTN line side adaptation to provide sub-rate granularity and distribution, the method comprising: subsequent to receiving OTN signal, segmenting the OTN signal into N flows of cells with associated identifiers, based on a number of allocated tributary slots of the OTN signal, wherein N ≥ 0, wherein, when N>O, the cells only include allocated payload from the OTN signal , the method characterized by in that, when N=O, the cells only include overhead; and switching the cells, with a scheduler, to one or more line side modems for transmission thereof where a rate of the one or more line side modems is disassociated from a line rate of the OTN signal. subsequent to receiving OTN signal, segmenting the OTN signal into N flows of cells with associated identifiers, based on a number of allocated tributary slots of the OTN signal, wherein N ≥ 0, wherein, when N>O, the cells only include allocated payload from the OTN signal , the method characterized by in that, when N=O, the cells only include overhead; and switching the cells, with a scheduler, to one or more line side modems for transmission thereof where a rate of the one or more line side modems is disassociated from a line rate of the OTN signal.
An apparatus for intrusion detection, comprising: means for generating a random sequence based in part on random physical hardware artifacts; means for generating a transmit, Tx power pattern by an intrusion detection system of a vehicle based on the random sequence; means for sending one or more control signals to a radar transmitter to cause the radar transmitter to transmit a radar signal based on the Tx power pattern; means for receiving at least one radar signal at a radar receiver; means for identifying a signal to noise ratio, SNR, and a range associated with the at least one radar signal ; means for determining whether the SNR and range of the at least one radar signal deviates from an expected SNR and range based on the Tx power pattern; and means for tagging a target associated with the at least one radar signal as a ghost target based on a determination that the SNR and range of the at least one radar signal deviates from the expected SNR and range based on the Tx power pattern. means for generating a random sequence based in part on random physical hardware artifacts; means for generating a transmit, Tx power pattern by an intrusion detection system of a vehicle based on the random sequence; means for sending one or more control signals to a radar transmitter to cause the radar transmitter to transmit a radar signal based on the Tx power pattern; means for receiving at least one radar signal at a radar receiver; means for identifying a signal to noise ratio, SNR, and a range associated with the at least one radar signal ; means for determining whether the SNR and range of the at least one radar signal deviates from an expected SNR and range based on the Tx power pattern; and means for tagging a target associated with the at least one radar signal as a ghost target based on a determination that the SNR and range of the at least one radar signal deviates from the expected SNR and range based on the Tx power pattern.
A blank for forming a carrier for holding at least one article (A), the blank comprising: a plurality of panels comprising a first main panel foldably connected to a second main panel , the first main panel extends along the length of the blank and comprises a top panel portion foldably connected at an end to at least one top side panel portion, the second main panel extends along the length of the blank and comprises a bottom panel portion foldably connected at an end to at least one bottom side panel portion, the first main panel is at least partially foldably connected to the second main panel at a longitudinal line of weakening extending along the length of the blank ; and at least one handle feature formed in the top panel portion for forming a handle . a plurality of panels comprising a first main panel foldably connected to a second main panel , the first main panel extends along the length of the blank and comprises a top panel portion foldably connected at an end to at least one top side panel portion, the second main panel extends along the length of the blank and comprises a bottom panel portion foldably connected at an end to at least one bottom side panel portion, the first main panel is at least partially foldably connected to the second main panel at a longitudinal line of weakening extending along the length of the blank ; and at least one handle feature formed in the top panel portion for forming a handle .
A thermoplastic composition comprising: a thermoplastic resin chosen from a PVC resin; and between 1.5 parts and 2.5parts of a core-shell impact modifier per 100 parts by weight of the thermoplastic resin, wherein the core-shell impact modifier has a rubber content of at least 90 wt% and wherein the core-shell impact modifier is selected from the group consisting of methacrylate-butadiene-styrene copolymers (MBS), acrylonitrile-butadiene-styrene copolymers (ABS), acrylic core/shell polymers (AIM), and a combination thereof. a thermoplastic resin chosen from a PVC resin; and between 1.5 parts and 2.5parts of a core-shell impact modifier per 100 parts by weight of the thermoplastic resin, wherein the core-shell impact modifier has a rubber content of at least 90 wt% and wherein the core-shell impact modifier is selected from the group consisting of methacrylate-butadiene-styrene copolymers (MBS), acrylonitrile-butadiene-styrene copolymers (ABS), acrylic core/shell polymers (AIM), and a combination thereof.
A primary apparatus used in a communications system that comprises a primary link and a spatial reuse link, wherein the primary link is set between a primary access point and a primary station, the primary apparatus comprising: a generating module , configured to generate information indicating spatial reuse transmission via the spatial reuse link, wherein the information is used to indicate whether a spatial reuse transmission is prohibited or not, the information occupies 4 bits and when a value of the 4 bits is 0, the value indicates that a spatial reuse transmission is prohibited and when the value of the 4 bits is any one of 1-14, the value indicates a determining parameter, and the determining parameter is associated with allowed interference power when the spatial reuse transmission is being done; a sending module , configured to send the information to a spatial reuse transmission device. a generating module , configured to generate information indicating spatial reuse transmission via the spatial reuse link, wherein the information is used to indicate whether a spatial reuse transmission is prohibited or not, the information occupies 4 bits and when a value of the 4 bits is 0, the value indicates that a spatial reuse transmission is prohibited and when the value of the 4 bits is any one of 1-14, the value indicates a determining parameter, and the determining parameter is associated with allowed interference power when the spatial reuse transmission is being done; a sending module , configured to send the information to a spatial reuse transmission device.
An arthroscopic shaver blade (10; 100) adapted to be mounted on a driving means (20; 200), said arthroscopic shaver blade comprising an outer portion and an inner portion configured to rotate within the outer portion when driven by the driving means (20; 200), the outer portion comprising a coupling portion characterized by the coupling portion comprising an indicator means (12; 112) for allowing said driving means to determine a property of said arthroscopic shaver blade (10; 100), wherein: said indicator means comprises a soft magnetic material configured to affect a magnetic field detected in said driving means (20; 200), and wherein the shape and/or extent of the soft magnetic material indicates a property of the arthroscopic shaver blade (10; 100); said soft magnetic material being arranged substantially in a plane, said plane being substantially perpendicular to the longitudinal axis of said arthroscopic shaver blade; said soft magnetic material being a ring section located around the longitudinal axis of the arthroscopic shaver blade wherein an angular extent of said soft magnetic material around said longitudinal axis indicates said property of said arthroscopic shaver blade (10; 100); and said soft magnetic material forms a part of the outer surface of the coupling portion of the outer portion of said arthroscopic shaver blade (10; 100). said indicator means comprises a soft magnetic material configured to affect a magnetic field detected in said driving means (20; 200), and wherein the shape and/or extent of the soft magnetic material indicates a property of the arthroscopic shaver blade (10; 100); said soft magnetic material being arranged substantially in a plane, said plane being substantially perpendicular to the longitudinal axis of said arthroscopic shaver blade; said soft magnetic material being a ring section located around the longitudinal axis of the arthroscopic shaver blade wherein an angular extent of said soft magnetic material around said longitudinal axis indicates said property of said arthroscopic shaver blade (10; 100); and said soft magnetic material forms a part of the outer surface of the coupling portion of the outer portion of said arthroscopic shaver blade (10; 100).