mhurhangee/ep-ind-claims huggingface dataset:
A method for producing an agricultural chemical-containing resin composition comprising: acetamiprid; a styrene-maleic anhydride copolymer or a styrene-maleic anhydride copolymer-mixed resin; and a hydrophilic white carbon having a hydrophobicity of 5% or lower, the method comprising: respectively selecting an acetamiprid content Ac SA and a hydrophilic white carbon content Ca SA relative to a total mass of the acetamiprid, the styrene-maleic anhydride copolymer or the styrene-maleic anhydride copolymer-mixed resin, and the hydrophilic white carbon, from a range satisfying the inequations of: 0.524 × Ac SA + 1.422 × Ca SA - 6.009 ≤ 40% by mass, 5% by mass ≤ Ac SA ≤ 35% by mass, and Ca SA ≥ 0.1% by mass; and mixing the acetamiprid, the styrene-maleic anhydride copolymer or the styrene-maleic anhydride copolymer-mixed resin, and the hydrophilic white carbon, so that the thus selected contents Ac SA and Ca SA can be achieved. respectively selecting an acetamiprid content Ac SA and a hydrophilic white carbon content Ca SA relative to a total mass of the acetamiprid, the styrene-maleic anhydride copolymer or the styrene-maleic anhydride copolymer-mixed resin, and the hydrophilic white carbon, from a range satisfying the inequations of: 0.524 × Ac SA + 1.422 × Ca SA - 6.009 ≤ 40% by mass, 5% by mass ≤ Ac SA ≤ 35% by mass, and Ca SA ≥ 0.1% by mass; and mixing the acetamiprid, the styrene-maleic anhydride copolymer or the styrene-maleic anhydride copolymer-mixed resin, and the hydrophilic white carbon, so that the thus selected contents Ac SA and Ca SA can be achieved.
Method for adjusting a brake pedal characteristic of a vehicle, wherein the vehicle comprises a brake pedal configured to generate a brake pedal deceleration demand and at least one further deceleration demand generating device to generate at least one further deceleration demand, wherein the vehicle is configured to decelerate according to the brake pedal deceleration demand and to the at least one further deceleration demand, wherein the method comprises the steps: - step determining an achievable deceleration potential as a result of the further deceleration demand; - step generating a deceleration demand for adjusting the brake pedal deceleration demand at 0% brake pedal input according to the achievable deceleration potential; and - step adjusting the brake pedal characteristic (1, 3) of the vehicle. - step determining an achievable deceleration potential as a result of the further deceleration demand; - step generating a deceleration demand for adjusting the brake pedal deceleration demand at 0% brake pedal input according to the achievable deceleration potential; and - step adjusting the brake pedal characteristic (1, 3) of the vehicle.
System for arranging rod-like elements, in particular cigarettes, on a longitudinal aligning conveyor along the direction of movement of the conveyor, comprising: a container for unordered rod-like elements, a feeding conveyor, a chute and the aligning conveyor wherein the rod-like elements fed from the container are transported by the feeding conveyor to the chute, the rod-like elements being arranged on the feeding conveyor transversally to the direction of movement, the bottom of the chute being downwardly slanted at an angle (α) to the horizontal, the intake end of the longitudinally grooved aligning conveyor being located downstream the outlet end of the chute, the aligning conveyor being upwardly slanted at an angle (β) to the horizontal and being adapted to convey the rod-like elements from the outlet end of the chute upward the aligning conveyor with a speed enabling passing the rod-like elements from the chute into the grooves of the aligning conveyor along these grooves. a container for unordered rod-like elements, a feeding conveyor, a chute and the aligning conveyor wherein the rod-like elements fed from the container are transported by the feeding conveyor to the chute, the rod-like elements being arranged on the feeding conveyor transversally to the direction of movement, the bottom of the chute being downwardly slanted at an angle (α) to the horizontal, the intake end of the longitudinally grooved aligning conveyor being located downstream the outlet end of the chute, the aligning conveyor being upwardly slanted at an angle (β) to the horizontal and being adapted to convey the rod-like elements from the outlet end of the chute upward the aligning conveyor with a speed enabling passing the rod-like elements from the chute into the grooves of the aligning conveyor along these grooves.
A method of transmitting a block of data in a distributed MIMO system, wherein the distributed MIMO system comprises: a plurality of access points; and wherein the plurality of access points are grouped into a first set of M groups and a second set of M groups, different from the first set, wherein M is an integer and wherein both of the first and second sets of M groups include all of the plurality of access points; a first antenna port mapping assigns each group of the first set to a unique one of M antenna ports; and a second antenna port mapping assigns each group of the second set to a unique one of M antenna ports; the method comprising: transmitting the block of data using both the first and the second antenna port mapping, wherein transmitting the block of data comprises: in a first time slot, transmitting the block of data using the first antenna port mapping, and in a later second time slot, transmitting the block of data using the second antenna port mapping; and/or in a first frequency band, transmitting the block of data using the first antenna port mapping, and in a second frequency band, transmitting the block of data using the second antenna port mapping. a plurality of access points; and wherein the plurality of access points are grouped into a first set of M groups and a second set of M groups, different from the first set, wherein M is an integer and wherein both of the first and second sets of M groups include all of the plurality of access points; a first antenna port mapping assigns each group of the first set to a unique one of M antenna ports; and a second antenna port mapping assigns each group of the second set to a unique one of M antenna ports; the method comprising: transmitting the block of data using both the first and the second antenna port mapping, wherein transmitting the block of data comprises: in a first time slot, transmitting the block of data using the first antenna port mapping, and in a later second time slot, transmitting the block of data using the second antenna port mapping; and/or in a first frequency band, transmitting the block of data using the first antenna port mapping, and in a second frequency band, transmitting the block of data using the second antenna port mapping. in a first time slot, transmitting the block of data using the first antenna port mapping, and in a later second time slot, transmitting the block of data using the second antenna port mapping; and/or in a first frequency band, transmitting the block of data using the first antenna port mapping, and in a second frequency band, transmitting the block of data using the second antenna port mapping.
An aqueous redispersible epoxy polymer powder comprising epoxy resin particles, the epoxy resin particles comprising: (a) epoxy resin; (b) an alkali soluble polymer shell around each epoxy resin particles, the alkali soluble polymer shell comprising a polymer made of at least five weight-percent and forty weight-percent or less of monomers selected from carboxylic acid monomers and anhydride monomers based on total weight of monomers polymerized to form the alkali soluble polymer shell and the alkali soluble polymer shell having a glass transition temperature of at least 60 degrees Celsius as calculated by the Fox equation; and (c) a dispersing aid; wherein the epoxy resin is present at a concentration of greater than fifty weight-percent and ninety weight-percent or less, the alkali soluble polymer shell is present at a concentration in a range of ten to fifty weight-percent and the dispersing aid is present at a concentration of two to twenty-five weight-percent with weight-percents of epoxy resin, alkali soluble polymer shell and dispersing aid being based on the combined total weight of epoxy resin, alkali soluble polymer shell and dispersing aid such that the combined weight percents of each of these three components is 100 weight-percent. (a) epoxy resin; (b) an alkali soluble polymer shell around each epoxy resin particles, the alkali soluble polymer shell comprising a polymer made of at least five weight-percent and forty weight-percent or less of monomers selected from carboxylic acid monomers and anhydride monomers based on total weight of monomers polymerized to form the alkali soluble polymer shell and the alkali soluble polymer shell having a glass transition temperature of at least 60 degrees Celsius as calculated by the Fox equation; and (c) a dispersing aid;
A computing system comprising: a processor configured to: receive a chain of blocks from a blockchain which comprises a directed acyclic graph format in which blocks are independently hash-linked to multiple blocks, wherein the chain of blocks in the DAG format comprise a plurality of subsets of linear chains of blocks of a plurality of peers, where the plurality of subsets of linear chains of blocks comprise interconnections therebetween; generate an order graph in the DAG format that comprises nodes that correspond to the blocks with edges therebetween that correspond to hash links; identify temporal relationships between blocks in the chain of blocks based on a structure of the chain of blocks in the DAG format and on the edges between the nodes on the order graph; transform a parent relationship on the order graph via addition of an edge from a child node to a node that is linked to a parent node of the child node, and removal of an edge between the child node and the parent node; identify two different paths between a pair of nodes on the order graph, and remove a shorter path between the pair of nodes among the two different paths; and determine a sequential linear order of the chain of blocks in the DAG format based on the identified temporal relationships; and a storage configured to store the sequential linear order of the chain of blocks. receive a chain of blocks from a blockchain which comprises a directed acyclic graph format in which blocks are independently hash-linked to multiple blocks, wherein the chain of blocks in the DAG format comprise a plurality of subsets of linear chains of blocks of a plurality of peers, where the plurality of subsets of linear chains of blocks comprise interconnections therebetween; generate an order graph in the DAG format that comprises nodes that correspond to the blocks with edges therebetween that correspond to hash links; identify temporal relationships between blocks in the chain of blocks based on a structure of the chain of blocks in the DAG format and on the edges between the nodes on the order graph; transform a parent relationship on the order graph via addition of an edge from a child node to a node that is linked to a parent node of the child node, and removal of an edge between the child node and the parent node; identify two different paths between a pair of nodes on the order graph, and remove a shorter path between the pair of nodes among the two different paths; and determine a sequential linear order of the chain of blocks in the DAG format based on the identified temporal relationships; and a storage configured to store the sequential linear order of the chain of blocks.
A wound care arrangement having a covering unit that can be attached to the skin surrounding a wound and used to produce an enclosed wound space comprising the wound, and a suction connection across which a negative pressure can be generated in the wound space, the covering unit comprising a film tube into which a human extremity can be introduced, characterised in that the covering unit is water vapour permeable, at least in sections, and the water vapour permeability of the covering unit is, at least in sections, more than 300 g/m 2 /24 hrs.
Drive apparatus for a motor vehicle, having a first drive assembly, a second drive assembly and a epicyclic gear train, by means of which the first drive assembly and the second drive assembly can be coupled to one another and to a driven shaft of the drive apparatus, wherein the first drive assembly is coupled or can be coupled to a first gear element, the second drive assembly is coupled or can be coupled to a second gear element and the driven shaft is coupled or can be coupled to a third gear element of the epicyclicgear train, wherein the epicyclic gear train has an interlocking coupling for coupling the second gear element and the third gear element to one another and the first gear element can be braked by means of a braking apparatus, wherein an further drive assembly can be coupled by means of a further clutch coupling to the first drive assembly, characterised in that the further drive assembly can be coupled via a further epicyclic gear train to the driven shaft, wherein the first drive assembly can be coupled to the driven shaft by means of the further clutch coupling via the further drive assembly by bypassing the epicyclic gear train, and wherein a secondary drive shaft of a secondary drive is coupled to the further epicyclic gear train.
A propylene ethylene 1-butene terpolymer wherein: (i) the content of ethylene derived units ranges from 1.1 wt% to 1.9 wt%, (ii) the content of 1-butene ranges from 5.0 wt% to 9.0 wt%, (iii) the melting point (Tm) of the non nucleated terpolymer ranges from 125°C to 137°C; (iv) the xylene soluble fraction at 25°C is lower than 8.0 wt%. (i) the content of ethylene derived units ranges from 1.1 wt% to 1.9 wt%, (ii) the content of 1-butene ranges from 5.0 wt% to 9.0 wt%, (iii) the melting point (Tm) of the non nucleated terpolymer ranges from 125°C to 137°C; (iv) the xylene soluble fraction at 25°C is lower than 8.0 wt%.
A fireplace including a fire box provided with a grate and a door, surrounded by a fire box jacket and having a combustion air supply and a throat for removing the flue gases, after the throat above the fire box there is a vertical metal jacket that leads the flue gases upwards, having a substantially continuous heat-storing mass of a well heat-storing material thereinside, so disposed that flue gas ducts are formed between the metal jacket and the heat-storing mass and extend substantially for their entire width and entire height, and that the metal jacket and the fire box jacket are surrounded by the exterior jacket of the fireplace, characterized in that in the throat or after the throat below the heat-storing mass there are suction guides for guiding the hot flue gases evenly around the heat-storing mass, and above the heat-storing mass there are injection guides for distributing the draft of the following discharge flue evenly around the heat-storing mass.
An article comprising: a glass substrate having opposing major surfaces and having a first average strain-to-failure measured by ball on ring testing; a crack mitigating layer disposed on a first major surface of the glass substrate, the crack mitigating layer comprising a first elastic modulus measured using a Berkovich diamond indenter; and a film disposed on the crack mitigating layer having a second average strain-to-failure measured by ball on ring testing that is less than the first average strain-to-failure and a second modulus measured using a Berkovich diamond indenter that is greater than the first elastic modulus, wherein the crack mitigating layer reduces the stress intensity factor of a crack having a stress intensity factor and originating in the film, as the crack bridges into one or more of the crack mitigating layer and the glass substrate, wherein the crack mitigating layer comprises a polymeric material selected from one or more of polyimide, fluorinated polyimide, polyetherimide and polyethersulfone, and wherein the film comprises one or more transparent conductive oxide layers. wherein the glass substrate is chemically strengthened and has a compressive stress greater than 500 MPa and a compressive stress depth-of-layer greater than 15 μm. a glass substrate having opposing major surfaces and having a first average strain-to-failure measured by ball on ring testing; a crack mitigating layer disposed on a first major surface of the glass substrate, the crack mitigating layer comprising a first elastic modulus measured using a Berkovich diamond indenter; and a film disposed on the crack mitigating layer having a second average strain-to-failure measured by ball on ring testing that is less than the first average strain-to-failure and a second modulus measured using a Berkovich diamond indenter that is greater than the first elastic modulus, wherein the crack mitigating layer reduces the stress intensity factor of a crack having a stress intensity factor and originating in the film, as the crack bridges into one or more of the crack mitigating layer and the glass substrate, wherein the crack mitigating layer comprises a polymeric material selected from one or more of polyimide, fluorinated polyimide, polyetherimide and polyethersulfone, and wherein the film comprises one or more transparent conductive oxide layers. wherein the glass substrate is chemically strengthened and has a compressive stress greater than 500 MPa and a compressive stress depth-of-layer greater than 15 μm.
Apparatus for making a goods sales offer, which comprises a server connected to the internet, an internet portal for goods offered for sale, a database connected to said server characterized in that in said server are stored codes of the goods offered for sale in said portal and at least access statistics of the users of the portal to the codes of the goods offered for sale in said portal, said apparatus further comprising an electronic processor connected to said server, a changing room delimiting a user stationing area, a monitor installed in said changing room and connected to the processor, at least two webcams (8, 9) having opposite frame views of said stationing area and connected to said processor, said first webcam being installed on a same wall of said room where said monitor is installed while said second webcam being installed on an opposite wall of said changing room, a reader of goods codes, installed in said changing room and connected to said processor, and automatic activating and deactivating means of a goods sales offer session on said monitor, said automatic activating deactivating means comprising said webcams (8, 9) which enable activation of the session when they detect a presence of users in the changing room and deactivation of the session when they detect an absence of users in the changing room, said monitor having a touch screen for receiving inputs from the users present in the changing room, said monitor further exhibiting at least a mirror mode in which it selectively displays in real-time the image captured by said first or second webcam (8, 9) and at least a display mode of goods offered for sale, said server having an interfacing program to interface with a mobile application installed in mobile electronic devices of users, said interfacing program being configured at least for acquisition of selfie photographs by means of said webcams (8, 9) and transmission thereof to said mobile electronic devices of said users, where the selfies photographs are received in/by the mobile application installed..
A computer-implemented method for jointly calling variants in homologous regions, the method comprising: identifying one or more homologous regions to be processed jointly; loading a joint pile-up for the regions to be processed jointly, creating a candidate variant list from the joint pile-up, and creating a connection matrix that defines an order of processing of the candidate variant positions; for each candidate variant position: generating candidate joint diplotypes including the current candidate variant position, calculating an a posteriori probability P(G m |R) of each of the candidate joint diplotypes G m in view of the pile-up R, computing a genotype matrix comprising for each candidate variant the sum of a posteriori probabilities of all joint diplotypes supporting the variant, pruning candidate joint diplotypes with the lowest a posteriori probabilities, including a next candidate variant position as evidence for a current candidate variant position and repeating the generating, calculating, computing, pruning and including steps until a stop criterion is met; and calling the candidate variant position from the final genotype matrix; and outputting a variant call file. identifying one or more homologous regions to be processed jointly; loading a joint pile-up for the regions to be processed jointly, creating a candidate variant list from the joint pile-up, and creating a connection matrix that defines an order of processing of the candidate variant positions; for each candidate variant position: generating candidate joint diplotypes including the current candidate variant position, calculating an a posteriori probability P(G m |R) of each of the candidate joint diplotypes G m in view of the pile-up R, computing a genotype matrix comprising for each candidate variant the sum of a posteriori probabilities of all joint diplotypes supporting the variant, pruning candidate joint diplotypes with the lowest a posteriori probabilities, including a next candidate variant position as evidence for a current candidate variant position and repeating the generating, calculating, computing, pruning and including steps until a stop criterion is met; and calling the candidate variant position from the final genotype matrix; and outputting a variant call file. generating candidate joint diplotypes including the current candidate variant position, calculating an a posteriori probability P(G m |R) of each of the candidate joint diplotypes G m in view of the pile-up R, computing a genotype matrix comprising for each candidate variant the sum of a posteriori probabilities of all joint diplotypes supporting the variant, pruning candidate joint diplotypes with the lowest a posteriori probabilities, including a next candidate variant position as evidence for a current candidate variant position and repeating the generating, calculating, computing, pruning and including steps until a stop criterion is met; and calling the candidate variant position from the final genotype matrix; and outputting a variant call file.
Medical robot comprising a robot arm which has a plurality of links, drives provided for moving the links and an attachment device, a sound generating device secured to the attachment device, which sound generating device is provided for applying high intensity focused ultrasound to a living organism, and a control device for activating the drives, characterised in that the control device is set up to operate the drives with force regulation, so that the robot arm presses the sound generating device against the living organism at a specified force while the high intensity focussed ultrasound is being applied to the living organism.
Application material for applying on a support with a coating, which comprises a material that may be activated by microwaves and/or coupled by induction and an adhesive or an adhesive component, which may be activated at a temperature lower than 80° C, characterised in that the coating has electrically conductive particles, soot, carbon, graphite, carbon nanotubes, ferrite, solvent and/or water as material that may be activated by microwaves and/or coupled by induction and that the coating has a hardener that may be activated at a temperature higher than or equal to 100° C for hardening an adhesive, in which the application material is made as textile, leather, artificial leather, plastic, spacer fabric, knitted spacer fabric or fleece.