mhurhangee/patent-ind-claim-en huggingface dataset:
An negative electrode comprising a negative electrode current collector , and a negative electrode mixed-materials layer disposed on the negative electrode current collector , the negative electrode mixed-materials layer including 70-96 mass% of a titanium-including metal oxide particle capable of having lithium ions inserted into and extracted from, 2-28 mass% of a conductive agent and 2-28 mass% of a binder that includes an acrylic resin, in amount of 70 mass% or higher based on the total weight of binder the titanium-including metal oxide particle including a phase that includes a carbon material having a high crystallinity on at least a portion of a surface thereof, and satisfying Equation (I: α / β > 6 in Equation (I), α is a peel strength (kN/m) between the negative electrode current collector and the negative electrode mixed-materials layer according to a surface/interface cutting method SAICAS, and β is a cutting strength (kN/m) in the negative electrode mixed-materials layer according to the surface/interface cutting method SAICAS, wherein the peel strength is determined in a constant load mode of the surface/interface cutting method SAICAS and the cutting strength is determined in a constant speed mode of the surface/interface cutting method SAICAS, the content of the carbon material disposed on the surface of the titanium-including metal oxide particle is from 0.5 wt.% to 5 wt.% of carbon based on the weight of the titanium comprising metal oxide particle, the acrylic resin is composed of polyacrylonitrile, and the binder has a weight average molecular weight of 10,000 to 50,000,000. , the peel strength α is from 1.1 kN/m to 20 kN/m, and the cutting strength β is from 0.18 kN/m to 3.33 kN/m. in Equation (I), α is a peel strength (kN/m) between the negative electrode current collector and the negative electrode mixed-materials layer according to a surface/interface cutting method SAICAS, and β is a cutting strength (kN/m) in the negative electrode mixed-materials layer according to the surface/interface cutting method SAICAS, wherein the peel strength is determined in a constant load mode of the surface/interface cutting method SAICAS and the cutting strength is determined in a constant speed mode of the surface/interface cutting method SAICAS, the content of the carbon material disposed on the surface of the titanium-including metal oxide particle is from 0.5 wt.% to 5 wt.% of carbon based on the weight of the titanium comprising metal oxide particle, the acrylic resin is composed of polyacrylonitrile, and the binder has a weight average molecular weight of 10,000 to 50,000,000. , the peel strength α is from 1.1 kN/m to 20 kN/m, and the cutting strength β is from 0.18 kN/m to 3.33 kN/m.
Mold string conveyor with mold extraction device, where the mold string conveyor is configured for providing support for a mold string while stepwise displacing said mold string forward along a displacement path, wherein the mold string conveyor comprises a first stretch and an adjacent second stretch and the mold extraction device comprises an inferior trapdoor located along the displacement path between the first stretch and the second stretch , characterized in that the mold extraction device further comprises trapdoor mold conveying means configured for stepwise displacing the portion of the mold string located on the trapdoor forward along the displacement path in synchronism with first mold string conveying means of the first stretch of the mold string conveyor and second mold string conveying means of the second stretch of the mold string conveyor .
A composition comprising (A) a polymer having at least one reactive silyl group selected from the group consisting of a polyether having at least one reactive silyl group, a (meth)acrylate-based polymer having at least one reactive silyl group, a polyisobutylene having at least one reactive silyl group and a silicone having at least one reactive silyl group and combinations thereof and (B) a lignin derivative having at least one functional group which is reactive with component (A).
An optical sensor system comprising: a light source generating a pulsed optical signal; an optical sensing fibre configured to receive the optical signal; an optical modulator for generating frequency sidebands in the optical signal, wherein the modulation frequency of the optical modulator is switched from a first modulation frequency (f1) to a second modulation frequency (f2) within the optical pulse modulation envelope, wherein part of the pulsed optical signal is chopped to generate two distinct portions of light pulses with different modulation sideband frequencies ; an optical filter configured to controllably select a plurality of the frequency sidebands , and, thereby vary the frequency of the light input to the sensing fibre, wherein the frequency sidebands selected by the optical filter include at least a first first order sideband and a second first order sideband , respectively generated for the first modulation frequency (f1) and for the second modulation frequency (f2), wherein the modulation sidebands between the two portions of the light pulse scattered or reflected from a sensing fibre beat together to generate multiple heterodyne signals at multiples of the frequency difference between the two pulses that are proportional to the order of the modulation sidebands . a light source generating a pulsed optical signal; an optical sensing fibre configured to receive the optical signal; an optical modulator for generating frequency sidebands in the optical signal, wherein the modulation frequency of the optical modulator is switched from a first modulation frequency (f1) to a second modulation frequency (f2) within the optical pulse modulation envelope, wherein part of the pulsed optical signal is chopped to generate two distinct portions of light pulses with different modulation sideband frequencies ; an optical filter configured to controllably select a plurality of the frequency sidebands , and, thereby vary the frequency of the light input to the sensing fibre, wherein the frequency sidebands selected by the optical filter include at least a first first order sideband and a second first order sideband , respectively generated for the first modulation frequency (f1) and for the second modulation frequency (f2), wherein the modulation sidebands between the two portions of the light pulse scattered or reflected from a sensing fibre beat together to generate multiple heterodyne signals at multiples of the frequency difference between the two pulses that are proportional to the order of the modulation sidebands .
Drone management system comprising at least one drone and a logistic support unit of said drone , said drone comprising at least one container fixed to said drone through one or more connection cables , said container is adapted to contain service material, said container comprising at least one inlet mouth of said service material and expulsion means of said service material, said logistic support unit comprising a resupply area of said container , which resupply area comprises resupply means of said container, characterized in that said resupply means comprise position locking means of said container , dispensing means communicating with a tank and a dispensing mouth adapted to communicate with said inlet mouth , said resupply area comprising a basin element , the walls of which converge towards said resupply means and comprise sliding elements configured for the sliding of said container towards said resupply means. said drone comprising at least one container fixed to said drone through one or more connection cables , said container is adapted to contain service material, said container comprising at least one inlet mouth of said service material and expulsion means of said service material, said logistic support unit comprising a resupply area of said container , which resupply area comprises resupply means of said container, characterized in that said resupply means comprise position locking means of said container , dispensing means communicating with a tank and a dispensing mouth adapted to communicate with said inlet mouth ,
A node connection method applied to a distributed computing system, the distributed computing system comprising a plurality of clients and a plurality of servers, wherein a server comprises a mapping table, and the node connection method comprising: recording node information and a mapping relationship between nodes in the mapping table; visiting , by a client, a service side of the distributed computing system based on the node information; acquiring , by the client, a target real node corresponding to the node information in the mapping table; and directly connecting , by the client, to the target real node, wherein the node connection method further comprising: determining (104; 200) whether a master-slave change exists in the distributed computing system, when the master-slave change exists, updating a changed mapping relationship between nodes to the mapping table, where the mapping relationship is changed after a fault downtime occurs at a master; and acquiring the target real node corresponding to the node information through a latest mapping table. recording node information and a mapping relationship between nodes in the mapping table; visiting , by a client, a service side of the distributed computing system based on the node information; acquiring , by the client, a target real node corresponding to the node information in the mapping table; and directly connecting , by the client, to the target real node, wherein the node connection method further comprising: determining (104; 200) whether a master-slave change exists in the distributed computing system, when the master-slave change exists, updating a changed mapping relationship between nodes to the mapping table, where the mapping relationship is changed after a fault downtime occurs at a master; and acquiring the target real node corresponding to the node information through a latest mapping table. determining (104; 200) whether a master-slave change exists in the distributed computing system, when the master-slave change exists, updating a changed mapping relationship between nodes to the mapping table, where the mapping relationship is changed after a fault downtime occurs at a master; and acquiring the target real node corresponding to the node information through a latest mapping table.
A method at a receiver device , the method comprising: running a plurality of applications at the receiver device ; detecting a switch causing a background application to become a primary application, the primary application being the application in focus on a display device ; switching the background application to the primary application, the switching causing a previous primary application to become a new background application; retrieving , from a settings datastore , configuration information for remote control settings for a remote control device , the remote control settings corresponding to the primary application and comprising settings for a last state of the primary application stored in the setting datastore ; and causing, based on the configuration information for the remote control settings, a remote control frame corresponding to the primary application to replace, on a display of the remote control device , a remote control frame corresponding to the previous primary application. running a plurality of applications at the receiver device ; detecting a switch causing a background application to become a primary application, the primary application being the application in focus on a display device ; switching the background application to the primary application, the switching causing a previous primary application to become a new background application; retrieving , from a settings datastore , configuration information for remote control settings for a remote control device , the remote control settings corresponding to the primary application and comprising settings for a last state of the primary application stored in the setting datastore ; and causing, based on the configuration information for the remote control settings, a remote control frame corresponding to the primary application to replace, on a display of the remote control device , a remote control frame corresponding to the previous primary application.
A method for a User Equipment, in the following also referred to as UE, configured with at least two serving cells, including a Primary Cell, in the following also referred to as PCell, which is activated and an Secondary Cell, in the following also referred to as SCell, which is deactivated, comprising: receiving an SCell activation/deactivation Medium Access Control, in the following also referred to as MAC, control element to activate the SCell ; activating the SCell based on the SCell activation/deactivation MAC control element ; receiving a beam indication by a MAC control element via the PCell, wherein the beam indication includes a cell index and the beam indication is used to derive at least one beam to be used in the SCell ; and using the at least one beam for a Downlink, in the following also referred to as DL, transmission or an Uplink, in the following also referred to as UL, transmission in the SCell . receiving an SCell activation/deactivation Medium Access Control, in the following also referred to as MAC, control element to activate the SCell ; activating the SCell based on the SCell activation/deactivation MAC control element ; receiving a beam indication by a MAC control element via the PCell, wherein the beam indication includes a cell index and the beam indication is used to derive at least one beam to be used in the SCell ; and using the at least one beam for a Downlink, in the following also referred to as DL, transmission or an Uplink, in the following also referred to as UL, transmission in the SCell .
A wrapped bundle of tobacco industry products , the wrapped bundle comprising a group of tobacco industry products , an inner frame folded about the tobacco industry products , and a wrapper enclosing the inner frame and tobacco industry products , the inner frame comprising a first major panel, a second major panel and a central panel, and wherein the inner frame comprises an aperture in at least the central panel that defines an extraction opening for removing tobacco industry products from within the inner frame , and wherein the wrapped bundle further comprises an adhesive label adhered to the wrapper to cover the extraction opening of the inner frame , characterised in that the first major panel and the second major panel are joined to opposing edges of the central panel such that the first and second major panels are folded relative to the central panel to form opposing sides of the inner frame .
A method of wireless communication carried out at an apparatus, the method comprising: in a first discovery frame, determining whether a discovery resource is available for communication, wherein the determining whether the discovery resource is available for communication comprises determining whether energy above a second threshold is detected at the discovery resource during an initial portion of the first discovery frame; if the discovery resource is available for communication, in each of at least two second discovery frames following the first discovery frame, transmitting a discovery signal using the discovery resource and puncturing the discovery signal during a listening window, wherein the listening window comprises a variable duration of time or a variable number of symbols between at least two subsequent second discovery subframes; detecting an energy of a received signal at the discovery resource during the listening window; and abandoning the discovery resource if the detected energy is above a first threshold. if the discovery resource is available for communication, in each of at least two second discovery frames following the first discovery frame, transmitting a discovery signal using the discovery resource and puncturing the discovery signal during a listening window, wherein the listening window comprises a variable duration of time or a variable number of symbols between at least two subsequent second discovery subframes; detecting an energy of a received signal at the discovery resource during the listening window; and abandoning the discovery resource if the detected energy is above a first threshold.
Device for the amplification of nucleic acids by means of a Polymerase Chain Reaction in a reaction volume, the device comprising a reaction vessel for receiving the reaction volume, a heating means, which consists of one or a plurality of heating elements to heat the reaction volume using electrical energy, and a means for transferring the electrical energy into the device, wherein the device can be operated on a Universal Serial Bus connection port of a PC, tablet computer or mobile phone, characterised in that the heating means is in the reaction vessel and in contact with the reaction volume, and the device is configured such that the device's electrical power consumption does not at any time during the Polymerase Chain Reaction exceed 20 Watt.
A package comprising: a main body configured to form a storage space to accommodate a packaged object ; and an impact buffer rib disposed on a side of the main body and outside the storage space; the main body and impact buffer rib being formed of sheet members; and characterized by : the impact buffer rib including: root portions that are both end portions of the impact buffer rib coupling to the main body and having a first height (Hb); and a central portion between the root portions , the central portion having a second height (Ha) larger than the first height (Hb). a main body configured to form a storage space to accommodate a packaged object ; and an impact buffer rib disposed on a side of the main body and outside the storage space; the main body and impact buffer rib being formed of sheet members; and characterized by : the impact buffer rib including: root portions that are both end portions of the impact buffer rib coupling to the main body and having a first height (Hb); and a central portion between the root portions , the central portion having a second height (Ha) larger than the first height (Hb). root portions that are both end portions of the impact buffer rib coupling to the main body and having a first height (Hb); and a central portion between the root portions , the central portion having a second height (Ha) larger than the first height (Hb).
A lift head for lifting layers of goods comprising squeezing pads for squeezing a product being lifted by the lift head and a valve for controlling the amount of air in the squeeze pads, the valve comprising a valve chamber comprising a primary set of openings with a first opening connectable to a high pressure blower and a second opening connected to said squeezing pads, whereby air can be transferred through said valve chamber between said squeezing pads and said high pressure blower, said valve chamber further comprising a third opening , whereby air from said first opening can pass through said third opening, and where air not passing through said third opening passes through said second opening, said valve further comprising a valve spool for blocking said third opening and thereby changing the amount of air passing through said third opening, characterised in that said valve spool for blocking said third opening comprises a limiter element , wherein said limiter element and/or said third opening has a varying diameter along the longitudinal axis of said limiter element, where the limiter element is adapted to be inserted along its longitudinal axis in said third opening, and where the extent of insertion of said limiter element changes the amount of air passing through said third opening.
A device for diluting an aerosol, with an inlet pipe (2.1) feeding an aerosol as an inlet aerosol, an outlet pipe (2.3) with an inlet opening (2.3.1) arranged at a finite distance from the outlet end (2.1.1) of the inlet pipe (2.1), with an annular space (2.2) surrounding at least an end area of the inlet pipe and with a clean gas line opening into the annular space (2.2) via an outlet opening, with an optical measuring device for the diluted aerosol, characterized in that the internal diameter of the outlet pipe (2.3) is between 1.1 and 1.3 times the external diameter of the inlet pipe (2.1).
A formulation comprising a glycan composite, said glycan composite comprising (a) a branched glycan deglycosylate less than 10 kD in size, wherein said branched glycan deglycosylate is a branched glycan originating from a macromolecule, selected from: (i) one or more of the group consisting of N-linked-glycans, Man n N-glycans, Man 3 N-glycans, Man n GlcNAc 2 , Man 4-7 GlcNAc 1-2 , Man 1-24 GalNAc 1-2 , Man 1-3 GlcNAc 1-2 , Man 8-15 GlcNAc 1-2 , Man 1-8 GlcNAc 1-3 and combinations thereof, wherein n is 1 to 24, (ii) one or more of the group consisting of N-acetylglycosaminyl-terminal ligands, Gal 1-8 Man 1-8 GlcNAc 2 ; Gal 4 Man 10 GlcNAc 2 ; Man 1-24 GlcNAc 1-3 ; and combinations thereof, or (iii) is derived from one or more of invertase enzymes, denatured invertases, partially hydrolyzed invertases, and invertase deglycosylates; and blends, thereof, and wherein said partially hydrolyzed invertases are preferably deglycosylated by citric acids; and (b) a Ca 2+ coordination complex and one or more D-block transition metal 2+ coordination complexes. (a) a branched glycan deglycosylate less than 10 kD in size, wherein said branched glycan deglycosylate is a branched glycan originating from a macromolecule, selected from: (i) one or more of the group consisting of N-linked-glycans, Man n N-glycans, Man 3 N-glycans, Man n GlcNAc 2 , Man 4-7 GlcNAc 1-2 , Man 1-24 GalNAc 1-2 , Man 1-3 GlcNAc 1-2 , Man 8-15 GlcNAc 1-2 , Man 1-8 GlcNAc 1-3 and combinations thereof, wherein n is 1 to 24, (ii) one or more of the group consisting of N-acetylglycosaminyl-terminal ligands, Gal 1-8 Man 1-8 GlcNAc 2 ; Gal 4 Man 10 GlcNAc 2 ; Man 1-24 GlcNAc 1-3 ; and combinations thereof, or (iii) is derived from one or more of invertase enzymes, denatured invertases, partially hydrolyzed invertases, and invertase deglycosylates; and blends, thereof, and wherein said partially hydrolyzed invertases are preferably deglycosylated by citric acids; and (i) one or more of the group consisting of N-linked-glycans, Man n N-glycans, Man 3 N-glycans, Man n GlcNAc 2 , Man 4-7 GlcNAc 1-2 , Man 1-24 GalNAc 1-2 , Man 1-3 GlcNAc 1-2 , Man 8-15 GlcNAc 1-2 , Man 1-8 GlcNAc 1-3 and combinations thereof, wherein n is 1 to 24, (ii) one or more of the group consisting of N-acetylglycosaminyl-terminal ligands, Gal 1-8 Man 1-8 GlcNAc 2 ; Gal 4 Man 10 GlcNAc 2 ; Man 1-24 GlcNAc 1-3 ; and combinations thereof, or (iii) is derived from one or more of invertase enzymes, denatured invertases, partially hydrolyzed invertases, and invertase deglycosylates; and blends, thereof, and wherein said partially hydrolyzed invertases are preferably deglycosylated by citric acids; and (b) a Ca 2+ coordination complex and one or more D-block transition metal 2+ coordination complexes.