mhurhangee/ep-ind-claims huggingface dataset:
A laminated foam sheet comprising: a foam layer; a first non-foam layer positioned on one surface of the foam layer; and a second non-foam layer positioned on another surface of the foam layer, wherein the foam layer includes a polyolefin-based resin, the foam layer has a thickness of 2.0 to 6.0 mm, the foam layer has a closed cell ratio of 70% or more, the first non-foam layer includes a non-cross-linked olefin-based elastomer, the first non-foam layer has a maximum static friction coefficient determined by JIS K7125 of 2.0 or more, the second non-foam layer has a maximum static friction coefficient determined by JIS K7125 of 1.0 or less, and a ratio represented by [basis weight of first non-foam layer (a)]/[basis weight of second non-foam layer (b)] is 0.5 to 2.0. a first non-foam layer positioned on one surface of the foam layer; and a second non-foam layer positioned on another surface of the foam layer, wherein the foam layer includes a polyolefin-based resin, the foam layer has a thickness of 2.0 to 6.0 mm, the foam layer has a closed cell ratio of 70% or more, the first non-foam layer includes a non-cross-linked olefin-based elastomer, the first non-foam layer has a maximum static friction coefficient determined by JIS K7125 of 2.0 or more, the second non-foam layer has a maximum static friction coefficient determined by JIS K7125 of 1.0 or less, and a ratio represented by [basis weight of first non-foam layer (a)]/[basis weight of second non-foam layer (b)] is 0.5 to 2.0.
A powered air purifying respirator (PAPR), comprising: an electric motor mechanically coupled to a blower; a battery coupled to the electric motor; an alarm device (112, 114, or 116); and an electronic controller, wherein the controller determines a second battery time remaining value based on indexing into a look-up table of values using a first battery time remaining value and a battery voltage to look up the second battery time remaining value, wherein the first battery time remaining value is an estimate of the battery remaining time based at least in part on a value of battery age, a sensed battery voltage, a sensed battery current, and a sensed battery temperature, wherein the electronic controller actuates the alarm device (112, 114, or 116) when the second battery time remaining value is less than a predefined threshold, wherein the second battery time remaining value is a more accurately determined time remaining value for the powered air purifying respirator than the first battery time remaining value. an electric motor mechanically coupled to a blower; a battery coupled to the electric motor; an alarm device (112, 114, or 116); and an electronic controller, wherein the controller determines a second battery time remaining value based on indexing into a look-up table of values using a first battery time remaining value and a battery voltage to look up the second battery time remaining value, wherein the first battery time remaining value is an estimate of the battery remaining time based at least in part on a value of battery age, a sensed battery voltage, a sensed battery current, and a sensed battery temperature, wherein the electronic controller actuates the alarm device (112, 114, or 116) when the second battery time remaining value is less than a predefined threshold, wherein the second battery time remaining value is a more accurately determined time remaining value for the powered air purifying respirator than the first battery time remaining value.
A scan circuit, comprising: logic circuitry; a plurality of scan flip flops coupled to the logic circuitry; a plurality of gates (502, 504) coupled between the logic circuitry and the plurality of scan flip flops; and a control node coupled to a first input of each of the plurality of gates (502, 504); each of the plurality of scan flip flops including a q-output coupled to a second input of a corresponding one of the plurality of gates (502, 504); the plurality of gates (502, 504) being configured to prevent toggling of the logic circuitry while an enable signal is asserted on the control node; the plurality of gates (502, 504) being further configured to output a minimal leakage state vector to the logic circuitry in response to the enable signal on the control node, and to pass through signals from each of the q-outputs to the logic circuitry in response to absence of the enable signal on the control line. logic circuitry; a plurality of scan flip flops coupled to the logic circuitry; a plurality of gates (502, 504) coupled between the logic circuitry and the plurality of scan flip flops; and a control node coupled to a first input of each of the plurality of gates (502, 504);
A method for adapting thresholds for speech codec selection, comprising the steps of: providing an estimate of prevailing received signal quality of speech; and dynamically adapting, in response to said estimate of prevailing received signal quality of speech, a set of thresholds (T1-T5) for link quality used at a communication network node for selecting a codec mode to be used among a set of available codec modes (31A-D, 41A-D); said step of providing an estimate of prevailing received signal quality in turn comprises the step of measuring prevailing received signal quality of speech in a mobile terminal on downlink signals; said step of dynamically adapting said set of thresholds (T1-T5) in turn comprises the steps of: computing proposed threshold adaptation values in said mobile terminal; transferring information representing said proposed threshold adaptation values from said terminal to the communication network node; evaluating said proposed threshold adaptation values in said communication network node; and adapting, in said communication network node said set of thresholds (T1-T5) according to said proposed threshold adaptation values if said proposed threshold adaptation values are found to be appropriate. providing an estimate of prevailing received signal quality of speech; and dynamically adapting, in response to said estimate of prevailing received signal quality of speech, a set of thresholds (T1-T5) for link quality used at a communication network node for selecting a codec mode to be used among a set of available codec modes (31A-D, 41A-D); said step of providing an estimate of prevailing received signal quality in turn comprises the step of measuring prevailing received signal quality of speech in a mobile terminal on downlink signals; said step of dynamically adapting said set of thresholds (T1-T5) in turn comprises the steps of: computing proposed threshold adaptation values in said mobile terminal; transferring information representing said proposed threshold adaptation values from said terminal to the communication network node; evaluating said proposed threshold adaptation values in said communication network node; and adapting, in said communication network node said set of thresholds (T1-T5) according to said proposed threshold adaptation values if said proposed threshold adaptation values are found to be appropriate. computing proposed threshold adaptation values in said mobile terminal; transferring information representing said proposed threshold adaptation values from said terminal to the communication network node; evaluating said proposed threshold adaptation values in said communication network node; and adapting, in said communication network node said set of thresholds (T1-T5) according to said proposed threshold adaptation values if said proposed threshold adaptation values are found to be appropriate.
A terminal comprising: a receiver, configured to receive first downlink DL, control information DCI, and a second DCI; and circuitry, configured to demultiplex a DL data signal from a received signal, using the first DCI and the second DCI, wherein the receiver is configured to identify a second DCI size in accordance with a modulation and coding scheme, MCS, for the DL data signal, indicated by the first DCI. a receiver, configured to receive first downlink DL, control information DCI, and a second DCI; and circuitry, configured to demultiplex a DL data signal from a received signal, using the first DCI and the second DCI, wherein the receiver is configured to identify a second DCI size in accordance with a modulation and coding scheme, MCS, for the DL data signal, indicated by the first DCI.
A system for limiting the compression force applied by an orthopaedic fastening assembly to a bone and/or fracture, the system comprising: a first component driver comprising a distal end for engaging a first member of the fastening assembly and a proximal end including a stop; and a second component driver comprising a distal end for engaging a second member of the fastening assembly and a proximal end, the second component driver including a structure disposed between the proximal end and the distal end of the second member that engages the stop of the first component driver to limit axial translation of the first member relative to the second member; characterised in that the system further comprises a stabilization structure selected from the group consisting of a plate and an intramedullary nail, the stabilization structure comprising a shaped opening configured to receive the first member and the second member in a side-by-side arrangement. a first component driver comprising a distal end for engaging a first member of the fastening assembly and a proximal end including a stop; and a second component driver comprising a distal end for engaging a second member of the fastening assembly and a proximal end, the second component driver including a structure disposed between the proximal end and the distal end of the second member that engages the stop of the first component driver to limit axial translation of the first member relative to the second member; characterised in that the system further comprises a stabilization structure selected from the group consisting of a plate and an intramedullary nail, the stabilization structure comprising a shaped opening configured to receive the first member and the second member in a side-by-side arrangement.
A method for treating a reforming catalyst in a reformer, the method comprising: reforming a gas stream in the reformer, the gas stream including hydrocarbons using a catalyst metal for conversion of the hydrocarbons to hydrogen in the gas stream; periodically treating, while reforming the gas stream, the catalyst in a reducing gas mixture environment, wherein the reducing gas mixture comprises hydrogen and at least one sulfur-containing compound, wherein the at least one sulfur containing compound includes one or more of hydrogen sulfide, carbonyl sulfide, carbonyl disulfide and organic sulfur-containing compounds, wherein periodically treating the catalyst metal while reforming the gas stream includes treating the catalyst metal with a sulfur dose by periodically adding the sulfur-containing compound to the reformer with the gas stream, wherein the sulfur dose is defined by the product of a sulfur level in the reducing gas mixture and exposure time of the catalyst metal to the reducing gas mixture during treatment; and supplying the generated hydrogen to the fuel side of a solid oxide fuel cell stack while air or other oxidant is fed to the oxidant side of fuel cell stack; and wherein the sulfur dose is from 100 parts per billion hour (ppb-h) to 5000 ppb-h. reforming a gas stream in the reformer, the gas stream including hydrocarbons using a catalyst metal for conversion of the hydrocarbons to hydrogen in the gas stream; periodically treating, while reforming the gas stream, the catalyst in a reducing gas mixture environment, wherein the reducing gas mixture comprises hydrogen and at least one sulfur-containing compound, wherein the at least one sulfur containing compound includes one or more of hydrogen sulfide, carbonyl sulfide, carbonyl disulfide and organic sulfur-containing compounds, wherein periodically treating the catalyst metal while reforming the gas stream includes treating the catalyst metal with a sulfur dose by periodically adding the sulfur-containing compound to the reformer with the gas stream, wherein the sulfur dose is defined by the product of a sulfur level in the reducing gas mixture and exposure time of the catalyst metal to the reducing gas mixture during treatment; and supplying the generated hydrogen to the fuel side of a solid oxide fuel cell stack while air or other oxidant is fed to the oxidant side of fuel cell stack; and wherein the sulfur dose is from 100 parts per billion hour (ppb-h) to 5000 ppb-h.
An image reconstruction method implemented on at least one device each of which has at least one processor and storage, the method comprising: obtaining image data, at least a portion of the image data relating to a region of interest; determining a regularization item according to a formula: R I = ∑ i j k ∈ Ω ∇ I i j k T A i j k ∇ I i j k, wherein I represents the image data, R represents the regularization item, (i,j,k) represents a voxel index of the image data, ∇I { i,j,k} represents a gradient of the voxel (i,j, k), ∇ I i j k T represents a transpose of the gradient of the voxel (i,j, k), Ω represents a whole image data domain, and A { i,j,k} represents a matrix corresponding to orientation information of the voxel (i, j, k) in smoothed image data; modifying the image data based on the regularization item; and generating an image based on the modified image data. obtaining image data, at least a portion of the image data relating to a region of interest; determining a regularization item according to a formula: R I = ∑ i j k ∈ Ω ∇ I i j k T A i j k ∇ I i j k, wherein I represents the image data, R represents the regularization item, (i,j,k) represents a voxel index of the image data, ∇I { i,j,k} represents a gradient of the voxel (i,j, k), ∇ I i j k T represents a transpose of the gradient of the voxel (i,j, k), Ω represents a whole image data domain, and A { i,j,k} represents a matrix corresponding to orientation information of the voxel (i, j, k) in smoothed image data; modifying the image data based on the regularization item; and generating an image based on the modified image data. R I = ∑ i j k ∈ Ω ∇ I i j k T A i j k ∇ I i j k, wherein I represents the image data, R represents the regularization item, (i,j,k) represents a voxel index of the image data, ∇I { i,j,k} represents a gradient of the voxel (i,j, k), ∇ I i j k T represents a transpose of the gradient of the voxel (i,j, k), Ω represents a whole image data domain, and A { i,j,k} represents a matrix corresponding to orientation information of the voxel (i, j, k) in smoothed image data; modifying the image data based on the regularization item; and generating an image based on the modified image data.
An apparatus for auxiliary contact of a circuit breaker, the apparatus comprising: a frame; a fixed contactor fixed to the frame inside the frame; a movable contactor installed inside the frame to be contacted with or separated from the fixed contactor; and a contact control member installed inside the frame, the contact control member being formed in a straight line shape, the contact control member being pressurized upward as an overcurrent is applied to the circuit breaker to allow the movable contactor to be contacted with or separated from the fixed contactor, wherein the contact control member includes a body portion locatable inside the circuit breaker to move up/down, and a moving plate provided at both sides of the body portion to allow the movable contactor to be contacted with or separated from the fixed contactor by moving the movable contactor as the body portion moves, characterized in that the length of one side of the moving plate in a direction perpendicular to the moving direction of the body portion is shorter than the length between the outer side surface of the body portion and the fixed contactor. a frame; a fixed contactor fixed to the frame inside the frame; a movable contactor installed inside the frame to be contacted with or separated from the fixed contactor; and a contact control member installed inside the frame, the contact control member being formed in a straight line shape, the contact control member being pressurized upward as an overcurrent is applied to the circuit breaker to allow the movable contactor to be contacted with or separated from the fixed contactor, wherein the contact control member includes a body portion locatable inside the circuit breaker to move up/down, and a moving plate provided at both sides of the body portion to allow the movable contactor to be contacted with or separated from the fixed contactor by moving the movable contactor as the body portion moves, characterized in that the length of one side of the moving plate in a direction perpendicular to the moving direction of the body portion is shorter than the length between the outer side surface of the body portion and the fixed contactor.
A system, comprising: a wearable tag operable in a first mode for a first health monitoring function and a second mode for a second health monitoring function, wherein the wearable tag includes first and second sensors and does not include a display, and wherein the first and second health monitoring functions are different functions selected from the group consisting of a rehabilitation function, a sun exposure monitoring function, a fitness tracking function, a fall detection function, a running assistance function, and a posture monitoring function; and an electronic device having control circuitry that receives sensor data indicative of a location of the wearable tag on a body of a user, wherein the control circuitry collects first sensor data from the first sensor when the wearable tag is operated in the first mode and collects second sensor data from the second sensor when the wearable tag is operated in the second mode, and wherein the control circuitry switches the wearable tag from the first mode to the second mode based on the location of the wearable tag on the body of the user. a wearable tag operable in a first mode for a first health monitoring function and a second mode for a second health monitoring function, wherein the wearable tag includes first and second sensors and does not include a display, and wherein the first and second health monitoring functions are different functions selected from the group consisting of a rehabilitation function, a sun exposure monitoring function, a fitness tracking function, a fall detection function, a running assistance function, and a posture monitoring function; and an electronic device having control circuitry that receives sensor data indicative of a location of the wearable tag on a body of a user, wherein the control circuitry collects first sensor data from the first sensor when the wearable tag is operated in the first mode and collects second sensor data from the second sensor when the wearable tag is operated in the second mode, and wherein the control circuitry switches the wearable tag from the first mode to the second mode based on the location of the wearable tag on the body of the user.
A modular heat-retaining system for keeping food warm, containing a plurality of induction heat-retaining units (3a..d), wherein each of the induction heat-retaining units (3a..d): - forms a heat-retaining area (4a..d); - contains at least one induction coil (95a..b) as part of a resonant inductive circuit for generating an alternating magnetic field for purposes of heating a dish to be kept warm placed on the heat-retaining area (4a..d), further containing a common power and control unit, wherein the common power and control unit contains: - a common power controller and - a plurality of connection interfaces (9a..d; 10a..d) for the individual connection of the induction heat-retaining units (3a..d), characterised in that each of the induction heat-retaining unit forms a support element having a top side, which serves as the bearing surface for the dish to be kept warm, and a bottom side, which is facing the induction coil (95a..b), and each of the induction heat-retaining units (3a..d) contains at least one temperature sensor (96a..c) in the surface of the heat-retaining area, facing the bottom side of the support element, for measuring the temperature of the support element on its bottom side, and wherein the power and control unit contains evaluating means for the evaluation of temperature measurement data of the temperature sensors (96a..c) on the induction heat-retaining units (3a..d), and the power and control unit further contains control means, and the control means is designed for the individual regulation of the heat-retaining temperatures on the induction heat-retaining units (3a..d) by means of the temperature sensors (96a..c), and wherein the power and control unit respectively its power controller contains a power stage, and subsequent to the power stage, there is provided a plurality of electronic switches (64, 65, 66, 67) for the individual connection or disconnection of the power supply to the induction coils (74a..b, 75a..b; 76a..b, 77a..b) of the induction heat-retaining units (3a..d). - forms a heat-retaining area (4a..d); - contains at least one induction coil (95a..b) as part of a resonant inductive circuit for generating an alternating magnetic field for purposes of heating a dish to be kept warm placed on the heat-retaining area (4a..d), - a common power controller and - a plurality of connection interfaces (9a..d; 10a..d) for the individual connection of the induction heat-retaining units (3a..d),
A method for wireless communication at a coordinating device of a spectrum sharing network, comprising: receiving, at the coordinating device, an indication that a frequency channel is to be vacated; identifying a plurality of cells of the spectrum sharing network that are using the frequency channel; determining a channel change order for the plurality of cells that indicates an order in which the plurality of cells should change channel, wherein the channel change order is based at least in part on one or a combination of: i) a number of user devices associated with at least one cell of the plurality of cells, ii) a type of service for user devices associated with the at least one cell; and providing, to the at least one cell of the plurality of cells, an indication of a channel change timing that is based at least in part on the determined channel change order. receiving, at the coordinating device, an indication that a frequency channel is to be vacated; identifying a plurality of cells of the spectrum sharing network that are using the frequency channel; determining a channel change order for the plurality of cells that indicates an order in which the plurality of cells should change channel, wherein the channel change order is based at least in part on one or a combination of: i) a number of user devices associated with at least one cell of the plurality of cells, ii) a type of service for user devices associated with the at least one cell; and providing, to the at least one cell of the plurality of cells, an indication of a channel change timing that is based at least in part on the determined channel change order.
A kit for identifying red feature causative mutation genotypes of white leghorn chickens so as to identify red feather traits of hybrid offspring hens of white leghorn chickens and Rhode Island Red roosters, the kit consisting of a primer pair and a restriction endonuclease, wherein the primer pair consists of a nucleotide sequence shown in SEQ ID NO.2 and a nucleotide sequence shown in SEQ ID NO.3, and the restriction endonuclease is Nrul.