mhurhangee/patent-ind-claim-en huggingface dataset:
A composition comprising the following components: A) an olefin-based polymer, wherein the olefin-based polymer of component A is an ethylene-based polymer, wherein the ethylene-based polymer is an ethylene/alpha-olefin copolymer; B) an anhydride and/or carboxylic acid functionalized olefin-based interpolymer comprising the following properties: i) a melt viscosity, at 190°C, less than, or equal to, 10 Pas (10,000 cP), and ii) a density from 0.900 to 0.950 g/cc; C) a wax; wherein the composition has a melt viscosity at 177°C of from 0.3 to 2 Pas (300 to 2000 cP); wherein component B is present in an amount from 15 to 20 weight percent, based on the weight of the composition. A) an olefin-based polymer, wherein the olefin-based polymer of component A is an ethylene-based polymer, wherein the ethylene-based polymer is an ethylene/alpha-olefin copolymer; B) an anhydride and/or carboxylic acid functionalized olefin-based interpolymer comprising the following properties: i) a melt viscosity, at 190°C, less than, or equal to, 10 Pas (10,000 cP), and ii) a density from 0.900 to 0.950 g/cc; i) a melt viscosity, at 190°C, less than, or equal to, 10 Pas (10,000 cP), and ii) a density from 0.900 to 0.950 g/cc; C) a wax; wherein the composition has a melt viscosity at 177°C of from 0.3 to 2 Pas (300 to 2000 cP); wherein component B is present in an amount from 15 to 20 weight percent, based on the weight of the composition. wherein the composition has a melt viscosity at 177°C of from 0.3 to 2 Pas (300 to 2000 cP); wherein component B is present in an amount from 15 to 20 weight percent, based on the weight of the composition.
Exhaust gas output device for a watercraft, wherein the exhaust gas output device has a first pipe , wherein hot exhaust gas can be directed through the first pipe , wherein the first pipe has a circular or elliptical cross section, wherein the radius of the first pipe can vary according to the height, wherein a second pipe is arranged inside the first pipe , wherein the second pipe is closed at the bottom, wherein the second pipe has a circular or elliptical cross section, wherein the radius of the second pipe can vary according to the height, wherein the radius of the first pipe is larger than the radius of the second pipe , wherein ambient air can be directed through the second pipe , characterized in that a first diffuser ring is arranged above the second pipe and within the first pipe, wherein the first diffuser ring has a circular or elliptical cross section, wherein the radius of the first diffuser ring is larger on the side adjacent to the second pipe than the radius of the second pipe on the side adjacent to the first diffuser ring .
A method of monitoring, by a user equipment, LTE , a feedback in a narrowband, NB-Internet of Thing, IoT system, the method comprising: receiving, from a base station , a preconfigured uplink, UL, resource, PUR, configuration via radio resource control, RRC, signaling; transmitting, to the base station , uplink data on the PUR ending in a subframe n in an idle mode; characterized by further comprising: monitoring Downlink Control Information, DCI, related to a feedback for the uplink data which is transmitted through a narrowband physical downlink control channel, NPDCCH, from the base station , in a search space of a feedback window, wherein the DCI is received, by the UE , in a Downlink, DL, subframe after 4 DL subframes from the subframe n; wherein, before receiving the DCI, the UE is configured by the base station with the feedback window as a specific multiple of a search space period; and stopping monitoring for other search spaces in the feedback window after the DCI has been received in the feedback window. receiving, from a base station , a preconfigured uplink, UL, resource, PUR, configuration via radio resource control, RRC, signaling; transmitting, to the base station , uplink data on the PUR ending in a subframe n in an idle mode; characterized by further comprising: monitoring Downlink Control Information, DCI, related to a feedback for the uplink data which is transmitted through a narrowband physical downlink control channel, NPDCCH, from the base station , in a search space of a feedback window, wherein the DCI is received, by the UE , in a Downlink, DL, subframe after 4 DL subframes from the subframe n; wherein, before receiving the DCI, the UE is configured by the base station with the feedback window as a specific multiple of a search space period; and stopping monitoring for other search spaces in the feedback window after the DCI has been received in the feedback window. monitoring Downlink Control Information, DCI, related to a feedback for the uplink data which is transmitted through a narrowband physical downlink control channel, NPDCCH, from the base station , in a search space of a feedback window, wherein the DCI is received, by the UE , in a Downlink, DL, subframe after 4 DL subframes from the subframe n; wherein, before receiving the DCI, the UE is configured by the base station with the feedback window as a specific multiple of a search space period; and stopping monitoring for other search spaces in the feedback window after the DCI has been received in the feedback window.
Wiper blade with a wiper strip, a supporting element, which distributes a contact pressure onto the windscreen over the length of the wiper blade , an adapter for connection to a wiper arm , at least one end cap at one or both ends of the wiper blade , said end caps covering at least the supporting element, and nozzle elements for applying a cleaning fluid to the pane, and fluid lines to the nozzle elements , which fluid lines are connectable to fluid feed lines of the wiper arm via the adapter , characterized in that a fluid feed line leads from the adapter to the at least one end cap , and a valve unit is connected to the fluid feed line in front of or in the end cap , and the nozzle elements are connected downstream of the valve unit , wherein end caps with a valve unit are arranged at both ends of the wiper blade .
An operator assistance system comprising: an automated fixture comprising a target holder and configured to maneuver a target device mounted to the target holder ; and a vision assist system comprising an optical fiber configured to project a visual indicator on a targeted location of the target device , the optical fiber associated with the target holder such that the optical fiber is positioned within the target device , wherein the optical fiber passes through a lumen formed by the target holder so that a light-emitting end of the optical fiber is surrounded by the target device when attached to the target holder. an automated fixture comprising a target holder and configured to maneuver a target device mounted to the target holder ; and a vision assist system comprising an optical fiber configured to project a visual indicator on a targeted location of the target device , the optical fiber associated with the target holder such that the optical fiber is positioned within the target device , wherein the optical fiber passes through a lumen formed by the target holder so that a light-emitting end of the optical fiber is surrounded by the target device when attached to the target holder.
A hybrid bearing comprising: a. a main body having a channel formed therein; b. a first pad engaged with said main body, wherein said pad includes an active surface ; c. a non-metallic material engaged with a first portion of said active surface of said first pad; and characterised by d. a second non-metallic material engaged with a second portion of said active surface of said first pad; and e. a third portion on said active surface comprised of a metallic material , wherein said non-metallic material and said second non-metallic material are further defined as being separated from one another by said third portion. a. a main body having a channel formed therein; b. a first pad engaged with said main body, wherein said pad includes an active surface ; c. a non-metallic material engaged with a first portion of said active surface of said first pad; and characterised by d. a second non-metallic material engaged with a second portion of said active surface of said first pad; and e. a third portion on said active surface comprised of a metallic material , wherein said non-metallic material and said second non-metallic material are further defined as being separated from one another by said third portion.
A User Equipment, UE, comprising: an LTE interface unit configured to: transmit a Packet Data Network, PDN, connectivity request message to a Mobility Management Entity, MME, in order to establish a PDN connection; and receive an Activate default EPS bearer context request message from the MME ; and a control unit , wherein the PDN connectivity request message includes first information indicating a requested Network-based IP Flow Mobility, NBIFOM, mode, the PDN connectivity request message further includes a request type and a Protocol Configuration Option, PCO, the control unit is configured to set the request type to information indicating an initial connectivity request, the PCO includes information indicating a request for use of NBIFOM, the Activate default EPS bearer context request message is a response message to the PDN connectivity request message, and includes second information indicating an NBIFOM mode, the Activate default EPS bearer context request message further includes information indicating that the request for use of NBIFOM is accepted, and based on the reception of the Activate default EPS bearer context request message, the control unit is configured to: recognize that the NBIFOM is applied to the PDN connection; and recognize the second information as an NBIFOM mode for the PDN connection. an LTE interface unit configured to: transmit a Packet Data Network, PDN, connectivity request message to a Mobility Management Entity, MME, in order to establish a PDN connection; and receive an Activate default EPS bearer context request message from the MME ; and transmit a Packet Data Network, PDN, connectivity request message to a Mobility Management Entity, MME, in order to establish a PDN connection; and receive an Activate default EPS bearer context request message from the MME ; and a control unit , wherein the PDN connectivity request message includes first information indicating a requested Network-based IP Flow Mobility, NBIFOM, mode, the PDN connectivity request message further includes a request type and a Protocol Configuration Option, PCO, the control unit is configured to set the request type to information indicating an initial connectivity request, the PCO includes information indicating a request for use of NBIFOM, the Activate default EPS bearer context request message is a response message to the PDN connectivity request message, and includes second information indicating an NBIFOM mode, the Activate default EPS bearer context request message further includes information indicating that the request for use of NBIFOM is accepted, and based on the reception of the Activate default EPS bearer context request message, the control unit is configured to: recognize that the NBIFOM is applied to the PDN connection; and recognize the second information as an NBIFOM mode for the PDN connection. recognize that the NBIFOM is applied to the PDN connection; and recognize the second information as an NBIFOM mode for the PDN connection.
An agricultural working machine, which is a combine harvester or a forage harvester, wherein the agricultural working machine has a drive assembly with an internal combustion engine and with an electrical energy supply system having an electrical auxiliary motor and an electrical energy storage device for the electrical auxiliary motor , a throughput sensor system, and wherein the agricultural working machine has a driver assistance system with a regulating device which is configured to carry out a regulation of the internal combustion engine , of the electrical auxiliary motor and of at least one power consumer which can be driven by the drive assembly , wherein the regulating device of the driver assistance system is configured to regulate a state of charge of the electrical energy storage device in an anticipatory manner as a function of the expected requirement for electrical energy, wherein, while an agricultural operational assignment is carried out, in a prediction routine, the regulating device of the driver assistance system predicts the requirement for electrical energy based on frontal field data and/or field crop data , and in that, on the basis of the result of the prediction routine, the regulating device adjusts the state of charge of the electric energy storage device , characterized in that in the prediction routine, the regulating device additionally predicts the requirement for electrical energy on the basis of sensor data from the throughput sensor system of the agricultural working machine . wherein the regulating device of the driver assistance system is configured to regulate a state of charge of the electrical energy storage device in an anticipatory manner as a function of the expected requirement for electrical energy, wherein, while an agricultural operational assignment is carried out, in a prediction routine, the regulating device of the driver assistance system predicts the requirement for electrical energy based on frontal field data and/or field crop data , and in that, on the basis of the result of the prediction routine, the regulating device adjusts the state of charge of the electric energy storage device , characterized in that in the prediction routine, the regulating device additionally predicts the requirement for electrical energy on the basis of sensor data from the throughput sensor system of the agricultural working machine .
A case assembly for a gas turbine engine , comprising: a case with a case boss , said case being an inner Mid-Turbine Frame case , wherein the case boss forms a sealed interface to the inner Mid-Turbine Frame case , said case boss including a peripheral wall that defines an inner diameter for receipt of a piston seal ; a service line received at least partially through said case boss , wherein said service line includes a flange ; and an inner capture plate to retain said flange ; characterised in that : the case assembly further comprises a bushing mounted within said inner diameter to receive said piston seal . a case with a case boss , said case being an inner Mid-Turbine Frame case , wherein the case boss forms a sealed interface to the inner Mid-Turbine Frame case , said case boss including a peripheral wall that defines an inner diameter for receipt of a piston seal ; a service line received at least partially through said case boss , wherein said service line includes a flange ; and an inner capture plate to retain said flange ; characterised in that : the case assembly further comprises a bushing mounted within said inner diameter to receive said piston seal .
Computer-implemented method of, based upon a plurality of directional LFP signal measured in a plurality of different directions at a directional sensor located in a predetermined region of a patient's brain, determining optimised patient-specific programming parameters for programming a directional stimulation lead with parameters for stimulating the said region, the method comprising: a spectral analysis step in which, over at least one predetermined frequency range, a power-frequency variation curve is determined for each of the directional LFP signals, a peak identification step in which the frequency of at least one local maximum, hereafter referred to as a peak , is identified in the power-frequency variation curves, a difference detection step of detecting one the at least one identified peaks at which a maximum difference in signal power between the directional LFP signals occurs, a directionality determining step of calculating a plurality of directionally weighted stimulation indices for the directional stimulation lead on the basis of the relative signal powers of the directional LFP signals at the frequency of the detected peak . a spectral analysis step in which, over at least one predetermined frequency range, a power-frequency variation curve is determined for each of the directional LFP signals, a peak identification step in which the frequency of at least one local maximum, hereafter referred to as a peak , is identified in the power-frequency variation curves, a difference detection step of detecting one the at least one identified peaks at which a maximum difference in signal power between the directional LFP signals occurs, a directionality determining step of calculating a plurality of directionally weighted stimulation indices for the directional stimulation lead on the basis of the relative signal powers of the directional LFP signals at the frequency of the detected peak .
Method for manufacturing sheet steel, in particular for outer skin panels of vehicles, wherein a steel alloy of desired composition is melted, cast and then rolled into a sheet, wherein the steel alloy is A) an interstitial free steel (IF steel) and, after rolling, the sheet steel B) is annealed and skin passed, characterised in that , in order to attain a Wsa value of under 0.35 μm, the steel is alloyed with the narrowest possible dispersion of niobium with a content >0.01 % w/w, preferably >0.011 % w/w, particularly preferably > 0.02 % w/w, wherein the alloy fulfils the following condition: N*(Ti+Nb)*S*10^6, wherein the product is greater than 1, preferably greater than 1.5, wherein the steel alloy has the following analysis: C 0.001-0.015 preferably 0.001-0.010 more preferably 0.001-0.005 Si 0.01-0.5 preferably 0.01-0.4 more preferably 0.01-0.3 Mn 0.02 up to 0.5 preferably 0.02-0.4 more preferably 0.02-0.3 P max. 0.1 preferably max. 0.05 more preferably max. 0.05 S max. 0.05 preferably max. 0.03 more preferably max. 0.03 Al 0.01 up to 1.0 preferably 0.01-0.50 more preferably 0.01-0.1 Nb 0.011 up to 0.15 preferably 0.011-0.10 more preferably 0.011-0.05 Ti 0.01 up to 0.4 preferably 0.01-0.3 more preferably 0.01-0.20 optionally one or more of the following elements: Boron up to max. 100 ppm and/or Vanadium up to 0.4 % w/w and/or Zirconium up to 0.4 % w/w and/or Hafnium up to 0.5 % w/w, and/or Tungsten up to 0.5 % w/w, and/or Tantalum up to 0.5 % w/w, the remainder being iron and melting-related impurities. A) an interstitial free steel (IF steel) and, after rolling, the sheet steel B) is annealed and skin passed, Boron up to max. 100 ppm and/or Vanadium up to 0.4 % w/w and/or Zirconium up to 0.4 % w/w and/or Hafnium up to 0.5 % w/w, and/or Tungsten up to 0.5 % w/w, and/or Tantalum up to 0.5 % w/w, the remainder being iron and melting-related impurities.
A borescope system for inspecting and profiling boreholes, comprising: a housing extending from a first end toward a second end, the housing including a first transparent viewing section extending circumferentially around a longitudinal axis of the housing and defining an exterior of a portion of the housing; a first camera configured to rotate about the longitudinal axis of the housing, and also pivot relative to the longitudinal axis of the housing; and a second camera disposed within the housing, the second camera being configured to rotate about the longitudinal axis of the housing, wherein the second camera is configured to visualize a field of view exterior of the housing through the first transparent viewing section . a housing extending from a first end toward a second end, the housing including a first transparent viewing section extending circumferentially around a longitudinal axis of the housing and defining an exterior of a portion of the housing; a first camera configured to rotate about the longitudinal axis of the housing, and also pivot relative to the longitudinal axis of the housing; and a second camera disposed within the housing, the second camera being configured to rotate about the longitudinal axis of the housing, wherein the second camera is configured to visualize a field of view exterior of the housing through the first transparent viewing section .
An air filter comprising: a pleated filter material folded into a zig-zag form at folding lines along a first direction to have peak parts and valley parts arising alternately in a second direction perpendicular to the first direction, trapping fine particles in a gaseous matter flowing in a gas flow direction perpendicular to the first direction and the second direction; a filter frame being a rectangular filter frame including one pair of first frame materials facing each other in the second direction having end parts in the first direction, and one pair of second frame materials facing each other in the first direction having end parts in the second direction, opening in the gas flow direction and housing the pleated filter material , each of the first frame materials and each of the second frame materials being combined to provide an overlap part where each of the end parts of each of the first frame materials and each of the end parts of each of the second frame materials overlap each other; a buffer material disposed between at least each of the second frame materials of the filter frame and the pleated filter material , held with the overlap part ; and a seal material sealing between at least a part of an inner surface of the filter frame and a part of the pleated filter material facing the part of the inner surface , wherein the buffer material is disposed to intervene between the seal material and the filter frame , and allows the seal material to expand or contract along the filter frame . a pleated filter material folded into a zig-zag form at folding lines along a first direction to have peak parts and valley parts arising alternately in a second direction perpendicular to the first direction, trapping fine particles in a gaseous matter flowing in a gas flow direction perpendicular to the first direction and the second direction; a filter frame being a rectangular filter frame including one pair of first frame materials facing each other in the second direction having end parts in the first direction, and one pair of second frame materials facing each other in the first direction having end parts in the second direction, opening in the gas flow direction and housing the pleated filter material , each of the first frame materials and each of the second frame materials being combined to provide an overlap part where each of the end parts of each of the first frame materials and each of the end parts of each of the second frame materials overlap each other; a buffer material disposed between at least each of the second frame materials of the filter frame and the pleated filter material , held with the overlap part ; and a seal material sealing between at least a part of an inner surface of the filter frame and a part of the pleated filter material facing the part of the inner surface , wherein the buffer material is disposed to intervene between the seal material and the filter frame , and allows the seal material to expand or contract along the filter frame .