mhurhangee/patent-ind-claim-en huggingface dataset:
A method of operating a network node in a communication network, the method comprising: receiving a message from a communication device connected to the network node and operating in the communication network, the message indicating that the communication device will enter an unavailable state, wherein the communication device is connected to the network node via a radio resource control, RRC, connection, and wherein receiving the message comprises receiving a media access control, MAC, protocol data unit, PDU including a bit indicating whether the unavailable state is for a predetermined duration; and responsive to receiving the message, preventing scheduling of a transmission to the communication device. receiving a message from a communication device connected to the network node and operating in the communication network, the message indicating that the communication device will enter an unavailable state, wherein the communication device is connected to the network node via a radio resource control, RRC, connection, and wherein receiving the message comprises receiving a media access control, MAC, protocol data unit, PDU including a bit indicating whether the unavailable state is for a predetermined duration; and responsive to receiving the message, preventing scheduling of a transmission to the communication device.
A method comprising: a) providing a substrate comprising one or more organic polymers; b) providing an aqueous acid solution comprising sulfuric acid, one or more alkane sulfonic acids and Mn(II) ions and counter anions; c) injecting ozone gas in the aqueous acid solution to oxidize the Mn(II) ions with ozone to generate at least 15 mmol/L Mn(III) ions, wherein the efficiency of oxidizing Mn(II) ions with the ozone to generate the at least 15 mmol/L Mn(III) ions is at least 60%, wherein Mn(III) (re)generation efficiency is measured as (amounts of Mn(III) (re)generated/(amounts of ozone brought in contact with the solution x 2) x 100%, and wherein the ozone gas is injected in the aqueous acid solution at a rate of 0.1 g/L/hour to 10 g/L/hour; and d) contacting the substrate comprising the one or more organic polymers with the aqueous acid solution containing the at least 15 mmol/L Mn(III) ions to etch the one or more polymers of the substrate. a) providing a substrate comprising one or more organic polymers; b) providing an aqueous acid solution comprising sulfuric acid, one or more alkane sulfonic acids and Mn(II) ions and counter anions; c) injecting ozone gas in the aqueous acid solution to oxidize the Mn(II) ions with ozone to generate at least 15 mmol/L Mn(III) ions, wherein the efficiency of oxidizing Mn(II) ions with the ozone to generate the at least 15 mmol/L Mn(III) ions is at least 60%, wherein Mn(III) (re)generation efficiency is measured as (amounts of Mn(III) (re)generated/(amounts of ozone brought in contact with the solution x 2) x 100%, and wherein the ozone gas is injected in the aqueous acid solution at a rate of 0.1 g/L/hour to 10 g/L/hour; and d) contacting the substrate comprising the one or more organic polymers with the aqueous acid solution containing the at least 15 mmol/L Mn(III) ions to etch the one or more polymers of the substrate.
A wave guide for high efficiency transmission of high energy light for ablation procedures at predetermined bandwidths over predetermined distances comprising: a. an optical fiber core; b. a silanization agent; c. layered cladding surrounding said optical fiber core comprising: i. a first metal layer comprising at least two types of metals, said first metal layer covalently bonded to said core; and, ii. a second metal layer bonded to said first metal layer; d. a catalyst component, wherein said catalyst component is palladium derived from an activation solution consisting of tin chloride, palladium chloride, potassium chloride for enhancing said layered cladding upon said optical fiber; characterized in that said silanization agent comprising 3-aminopropyltriethoxysilane (APTS) is a self supporting bridge between the surface of said optical fiber and said first metal layer; said first metal layer is uniformly chemisorbed onto the surface of said optical fiber by means of covalent Si-O-Si bonds with said optical fiber. a. an optical fiber core; b. a silanization agent; c. layered cladding surrounding said optical fiber core comprising: i. a first metal layer comprising at least two types of metals, said first metal layer covalently bonded to said core; and, ii. a second metal layer bonded to said first metal layer; i. a first metal layer comprising at least two types of metals, said first metal layer covalently bonded to said core; and, ii. a second metal layer bonded to said first metal layer; d. a catalyst component, wherein said catalyst component is palladium derived from an activation solution consisting of tin chloride, palladium chloride, potassium chloride for enhancing said layered cladding upon said optical fiber;
A SHARED ACTUATION SYSTEM for positioning an actuation tool relative to several valve interfaces on a subsea structure as a manifold, comprises: - a connection device for connection to the subsea structure, the system characterised in that , the connection device being connected to the subsea structure by means of a first rotary joint , - a first structural element connected to said subsea structure and to the connection device by means of the first rotary joint and of a second rotary joint , - a second structural element connected to a first end of the first structural element by means of a third rotary joint , the rotary joints providing at least two degrees of freedom for a distal end of the second structural element where the actuation tool is positioned for interaction with the valve interfaces on the subsea structure, - a sail element connected to an opposite second end of the first structural element , the sail element being designed to compensate the weight, at least one of the first structural element and the second structural element having a hydrodynamic profile formed with a relative thinner cross section at two forward edges opposite each other compared with a trailing part of the structural element in movement directions. - a connection device for connection to the subsea structure, the system characterised in that , the connection device being connected to the subsea structure by means of a first rotary joint , - a first structural element connected to said subsea structure and to the connection device by means of the first rotary joint and of a second rotary joint , - a second structural element connected to a first end of the first structural element by means of a third rotary joint , the rotary joints providing at least two degrees of freedom for a distal end of the second structural element where the actuation tool is positioned for interaction with the valve interfaces on the subsea structure, - a sail element connected to an opposite second end of the first structural element , the sail element being designed to compensate the weight, at least one of the first structural element and the second structural element having a hydrodynamic profile formed with a relative thinner cross section at two forward edges opposite each other compared with a trailing part of the structural element in movement directions.
An expandable device for attachment to a portable electronic device, the expandable device comprising: a base having a top side and a bottom side , the bottom side adapted to engage a portion of the portable electronic device; an folding mechanism operably coupled to the base ; and a button having a top side and a bottom side , the bottom side of the button being operably coupled to the folding mechanism , wherein the folding mechanism is selectively movable between an expanded configuration and a collapsed configuration, wherein the folding mechanism comprises a plurality of foldable legs , each having a plurality of body sections that are partitioned by leg folds , wherein upon pushing the button towards the base the plurality of body sections are caused to pivot about a corresponding one or more of the leg folds and will be compressed. a base having a top side and a bottom side , the bottom side adapted to engage a portion of the portable electronic device; an folding mechanism operably coupled to the base ; and a button having a top side and a bottom side , the bottom side of the button being operably coupled to the folding mechanism , wherein the folding mechanism is selectively movable between an expanded configuration and a collapsed configuration, wherein the folding mechanism comprises a plurality of foldable legs , each having a plurality of body sections that are partitioned by leg folds , wherein upon pushing the button towards the base the plurality of body sections are caused to pivot about a corresponding one or more of the leg folds and will be compressed.
A method of producing a plant-based oil-in-water emulsion comprising the steps of providing an ingredient composition which is free from dairy protein, said composition comprising 1.5 to 5 wt. %, preferably 2 to 5 wt. % proteins, wherein the protein consists of plant protein only, wherein the plant protein comprises pea protein, 0.5 to 10.5 wt%, preferably 1.5 to 7.5 wt% of oil, and having a pH of 5.3 - 6.7, preferably 5.6 - 6.6, optionally adding divalent cations to provide a concentration of 1 - 5 mM free divalent cations in the ingredient composition, optionally adding monovalent cations to provide a concentration of 1 - 20 mM free monovalent cations in the ingredient composition and homogenizing and subsequently heat treating the ingredient composition to a temperature of 80°- 100°C for a period of 0.5 - 15 min or an ultra high temperature (UHT) heat treatment above 135°C for 3 to 30 s to form agglomerated proteins comprising plant proteins and oil, and shearing the composition during or after the heat treatment to reduce the size of the agglomerated proteins, the agglomerates having a size of 1 to 50 μm (microns) D mean diameter as measured by laser diffraction after the shearing, wherein the agglomerate particle size distribution is measured using Mastersizer 3000 from Malvern Instruments, UK, where for the measurements a sample will be dispersed in the Hydro SM measuring cell until an obscuration rate of 9-10% is obtained and then analysed in the Mastersizer. providing an ingredient composition which is free from dairy protein, said composition comprising 1.5 to 5 wt. %, preferably 2 to 5 wt. % proteins, wherein the protein consists of plant protein only, wherein the plant protein comprises pea protein, 0.5 to 10.5 wt%, preferably 1.5 to 7.5 wt% of oil, and having a pH of 5.3 - 6.7, preferably 5.6 - 6.6, optionally adding divalent cations to provide a concentration of 1 - 5 mM free divalent cations in the ingredient composition, optionally adding monovalent cations to provide a concentration of 1 - 20 mM free monovalent cations in the ingredient composition and homogenizing and subsequently heat treating the ingredient composition to a temperature of 80°- 100°C for a period of 0.5 - 15 min or an ultra high temperature (UHT) heat treatment above 135°C for 3 to 30 s to form agglomerated proteins comprising plant proteins and oil, and shearing the composition during or after the heat treatment to reduce the size of the agglomerated proteins, the agglomerates having a size of 1 to 50 μm (microns) D mean diameter as measured by laser diffraction after the shearing, wherein the agglomerate particle size distribution is measured using Mastersizer 3000 from Malvern Instruments, UK, where for the measurements a sample will be dispersed in the Hydro SM measuring cell until an obscuration rate of 9-10% is obtained and then analysed in the Mastersizer.
Bicycle electric rear derailleur comprising: - a support body , configured to be mounted on a frame of a bicycle at an assembly of toothed wheels coaxial with a hub of a rear wheel of the bicycle , - a movable body , comprising a chain guide , - a linkage between the movable body and the support body , comprising an inner connecting rod and an outer connecting rod , the ends of which are articulated to the support body and to the movable body to form an articulated parallelogram, - a battery power supply unit , characterized in that the battery power supply unit is supported by one of the inner connecting rod and the outer connecting rod . - a support body , configured to be mounted on a frame of a bicycle at an assembly of toothed wheels coaxial with a hub of a rear wheel of the bicycle , - a movable body , comprising a chain guide , - a linkage between the movable body and the support body , comprising an inner connecting rod and an outer connecting rod , the ends of which are articulated to the support body and to the movable body to form an articulated parallelogram, - a battery power supply unit ,
A chip packaging method for forming a chip packaging structure comprising a die , a carrier , a die attach film and a plastic package body , the die attach film being disposed on a bottom surface of the die, and the thickness of the die attach film being greater than or equal to 40 micrometers, the die being disposed on the carrier via the die attach film and the plastic package body being disposed on the carrier body and coating a top surface and a plurality of side surfaces of the die, wherein the total thickness of the die and the die attach film is equal to a first preset value, the first preset value being a constant value, the method comprising: disposing a die attach film on a bottom surface of a die, wherein the thickness of the die attach film is greater than or equal to 40 micrometers; disposing the die on a carrier via the die attach film; and plastic packaging the die by utilizing a plastic package body, wherein the plastic package body is disposed on the carrier and coats a top surface and a plurality of side surfaces of the die to form a chip packaging structure; wherein before the die attach film is disposed on the bottom surface of the die, the chip packaging method further comprises: grinding the bottom surface of the die to reduce the thickness of the die until the total thickness of the ground die and the die attach film equals the first constant preset value . disposing a die attach film on a bottom surface of a die, wherein the thickness of the die attach film is greater than or equal to 40 micrometers; disposing the die on a carrier via the die attach film; and plastic packaging the die by utilizing a plastic package body, wherein the plastic package body is disposed on the carrier and coats a top surface and a plurality of side surfaces of the die to form a chip packaging structure; wherein before the die attach film is disposed on the bottom surface of the die, the chip packaging method further comprises: grinding the bottom surface of the die to reduce the thickness of the die until the total thickness of the ground die and the die attach film equals the first constant preset value .
A system for manufacturing a garment with reflective material deposits, the system comprising: an input device configured to receive a data file comprising a representation of areas of sun exposure on a three-dimensional (3-D) model of a human body; at least one computing device configured to receive the data file from the input device and convert the data file into reflective material deposition instructions; and a spraying device communicatively coupled with the at least one computing device and configured to receive the reflective material deposition instructions from the computing device and apply the reflective material to the garment ; wherein the at least one computing device is further configured to: model sun exposure on the 3-D model, determine, based on the mapped 3-D model of the human body, a maximal or average sun exposure for one or more areas of the 3-D model of the human body; map the maximal or average sun exposure for the one or more areas of the 3-D model of the human body onto the garment ; identify, based on the mapping, at least a first zone on the garment for application of continuous reflective material; and identify, based on the mapping, at least a second zone on the garment for application of a gradient of the reflective material. model sun exposure on the 3-D model, determine, based on the mapped 3-D model of the human body, a maximal or average sun exposure for one or more areas of the 3-D model of the human body; map the maximal or average sun exposure for the one or more areas of the 3-D model of the human body onto the garment ; identify, based on the mapping, at least a first zone on the garment for application of continuous reflective material; and identify, based on the mapping, at least a second zone on the garment for application of a gradient of the reflective material.
A moisture-curable formulation comprising: (A) a (hydrolyzable silyl group)-functional polyolefin prepolymer; and (B) an ascorbyl carboxylate ester of formula (I): wherein R is an unsubstituted (C 1 -C 45 )hydrocarbyl group; wherein (A) is from 89.0 to 99.9 weight percent (wt%) and (B) is from 11.0 to 0.1 wt% of the combined weight of (A) and (B); and wherein (A) is from 40 to 99.9 wt%, of total weight of the moisture-curable formulation and (B) is from 0.1 to 11 wt% of the total weight of the moisture-curable formulation. (A) a (hydrolyzable silyl group)-functional polyolefin prepolymer; and (B) an ascorbyl carboxylate ester of formula (I): wherein R is an unsubstituted (C 1 -C 45 )hydrocarbyl group; wherein (A) is from 89.0 to 99.9 weight percent (wt%) and (B) is from 11.0 to 0.1 wt% of the combined weight of (A) and (B); and wherein (A) is from 40 to 99.9 wt%, of total weight of the moisture-curable formulation and (B) is from 0.1 to 11 wt% of the total weight of the moisture-curable formulation. wherein (A) is from 89.0 to 99.9 weight percent (wt%) and (B) is from 11.0 to 0.1 wt% of the combined weight of (A) and (B); and wherein (A) is from 40 to 99.9 wt%, of total weight of the moisture-curable formulation and (B) is from 0.1 to 11 wt% of the total weight of the moisture-curable formulation.
Storage container for a motor vehicle , comprising: - a locking element configured to lock a closure of a storage chamber of the storage container , - a motor configured to open and close the locking element , - an internal authorization element comprising an antenna device configured to receive an opening signal of an external authorization element other than the storage container , and comprising a control unit configured to drive the motor , characterized in that - the internal authorization element comprises a motion sensor configured to detect a movement characteristic of the internal authorization element , - the internal authorization element is configured to receive movement data relating to a movement characteristic of the external authorization element via the antenna device , and to compare them with its own movement characteristic by means of the control unit , - the internal authorization element is configured to, upon receiving the opening signal and a movement characteristic of the external authorization element corresponding to the movement characteristic of the internal authorization element , generate an unlocking signal for opening the locking element by means of the control unit for the motor . - a locking element configured to lock a closure of a storage chamber of the storage container , - a motor configured to open and close the locking element , - an internal authorization element comprising an antenna device configured to receive an opening signal of an external authorization element other than the storage container , and comprising a control unit configured to drive the motor , - the internal authorization element comprises a motion sensor configured to detect a movement characteristic of the internal authorization element , - the internal authorization element is configured to receive movement data relating to a movement characteristic of the external authorization element via the antenna device , and to compare them with its own movement characteristic by means of the control unit , - the internal authorization element is configured to, upon receiving the opening signal and a movement characteristic of the external authorization element corresponding to the movement characteristic of the internal authorization element , generate an unlocking signal for opening the locking element by means of the control unit for the motor .
Method for the quality control of a component (4, 4a, 4b, 4c, 4d, i, j, k), wherein the component (4, 4a, 4b, 4c, 4d, i, j, k) is heated by an energy source which is intensity-modulated periodically with at least one frequency ω, and wherein the amplitude A and/or the phase φ of a heat wave emitted by the component (4, 4a, 4b, 4c, 4d, i, j, k) and modulated with the same frequency ω is registered , characterized in that, depending on the selected frequency ω, the grain size d of the material of which the component (4, 4a, 4b, 4c, 4d, i, j, k) is made or the adhesion properties F of a functional layer applied on the component (4, 4a, 4b, 4c, 4d, i, j, k) are evaluated from the amplitude A and/or the phase φ, wherein the grain size d of the material is measured at frequencies of between 25 and 400 Hz and the adhesion properties F of the functional layer are measured at frequencies of between 600 and 2000 Hz.
A drawbar for a towed vehicle, having a hitch longitudinal end and a vehicle longitudinal end located axially oppositely from the hitch longitudinal end along a longitudinal drawbar axis (DL) defining a longitudinal drawbar direction; the drawbar comprising at its hitch longitudinal end a hitching member that is embodied for establishment of a hitched connection to a towing-vehicle-side hitch component; and the drawbar being embodied at its vehicle longitudinal end for connection to a vehicle body of a towed vehicle; a drawbar body extending between the longitudinal ends of the drawbar ; the drawbar body having, in a drawbar portion closer to the hitch longitudinal end, an open cross section orthogonal to the longitudinal drawbar direction; and having, in a drawbar portion closer to the vehicle longitudinal end, a closed cross section orthogonal to the longitudinal drawbar direction, characterized in that the drawbar body is constituted only from one component; or the drawbar body is configured in at least two parts, having a first drawbar-body component that extends from a point located closer to the vehicle longitudinal end of the drawbar , in a longitudinal drawbar direction (DL), toward the hitch longitudinal end, and having a second drawbar-body component that is connected to the first drawbar-body component adjacently thereto in a longitudinal drawbar direction toward the hitch longitudinal end; the second drawbar-body component overlapping the first drawbar-body component , in a longitudinal drawbar direction, in a securing portion in which the second drawbar-body component is connected to the first drawbar-body component ; the second drawbar-body component comprising the drawbar portion having the open cross section; and the first drawbar-body component and the second drawbar-body component having, in the securing portion , a closed cross section orthogonal to the longitudinal drawbar axis (DL).