mhurhangee/patent-ind-claim-en huggingface dataset:
Supporting and locking system (S) for at least one tool (C) comprising: - at least one tool (C) having a through channel (C') and - a supporting and locking device for said at least one tool (C), such as a wheel chock or the like, said supporting and locking device comprising an elongated element , having a first end and a second end , said elongated element being insertable inside said through channel (C'), coupling means of said supporting and locking device for coupling with a chassis of a vehicle, said coupling means being arranged on said first end of said elongated element , said device comprising a locking member , arranged on said second end of said elongated element , that cannot be uncoupled from said elongated element , said locking member being adapted to lock said tool (C) when said elongated element is inserted in said through channel (C'), said device being characterized in that said elongated element further comprises a longitudinal projection , which projects along all the length of said elongated element and it is insertable in said through channel (C') of said tool (C). - at least one tool (C) having a through channel (C') and - a supporting and locking device for said at least one tool (C), such as a wheel chock or the like, said supporting and locking device comprising an elongated element , having a first end and a second end , said elongated element being insertable inside said through channel (C'), coupling means of said supporting and locking device for coupling with a chassis of a vehicle, said coupling means being arranged on said first end of said elongated element , said device comprising a locking member , arranged on said second end of said elongated element , that cannot be uncoupled from said elongated element , said locking member being adapted to lock said tool (C) when said elongated element is inserted in said through channel (C'), said device being characterized in that said elongated element further comprises a longitudinal projection , which projects along all the length of said elongated element and it is insertable in said through channel (C') of said tool (C).
Peelable eyeliner in form of an aqueous gel, comprising (percentages by weight referred to the weight of the peelable eyeliner): - 5%-30% of at least one inorganic or organic pigment; - 15%-25% of a film-forming agent consisting of an acrylic copolymer consisting of two or more monomers selected from: acrylic acid, methacrylic acid, methyl-acrylate, ethyl-acrylate, butyl-acrylate, hexyl-acrylate, methyl-methacrylate, ethyl-methacrylate, butyl-methacrylate and hexyl-methacrylate; the film-forming agent having a glass transition temperature Tg in the range from -25°C to 0°C; - 0.05%-3% of at least one thickening agent for aqueous systems; - 0.1%-5% of at least one surfactant; - 1%-10% of at least one C 1 -C 4 alkanol; - water in an amount equal to the complement to 100%, said peelable eyeliner having a pH in the range 6.5 - 7.5 and a Brookfield dynamic viscosity (measured at 25°C, speed 50 rpm, rotor S04) in the range 0.4 - 5 Pa.s (400 - 5000 cPs). - 5%-30% of at least one inorganic or organic pigment; - 15%-25% of a film-forming agent consisting of an acrylic copolymer consisting of two or more monomers selected from: acrylic acid, methacrylic acid, methyl-acrylate, ethyl-acrylate, butyl-acrylate, hexyl-acrylate, methyl-methacrylate, ethyl-methacrylate, butyl-methacrylate and hexyl-methacrylate; the film-forming agent having a glass transition temperature Tg in the range from -25°C to 0°C; - 0.05%-3% of at least one thickening agent for aqueous systems; - 0.1%-5% of at least one surfactant; - 1%-10% of at least one C 1 -C 4 alkanol; - water in an amount equal to the complement to 100%,
Processed lignin, which processed lignin comprises the elements carbon (C), hydrogen (H) and oxygen (O) in the following amounts: - carbon in an amount of between 60 and 85% by weight, - hydrogen in an amount of between 3.0 and 6.0% by weight, - oxygen in an amount of between 10 and 29% by weight, wherein the weight ratio carbon/hydrogen C/H is at least 12.5 and the ratio C/O is at least 2.5, and wherein the processed lignin comprises less than 0.1% by weight of total CI, wherein it has a sulphur content of below 1 g/kg, and wherein the moisture content of it is less than 3% by weight. - carbon in an amount of between 60 and 85% by weight, - hydrogen in an amount of between 3.0 and 6.0% by weight, - oxygen in an amount of between 10 and 29% by weight,
Adhesive composite of a first layer , which contains a thermoplastic polymer material or consists of such a material and / or which contains a thermosetting polymer material or consists of such a material, and at least one second layer of a silicone rubber connected thereto, wherein the adhesive composite is obtainable by a method having the following steps: (a) provision of the first layer , (b) arrangement of an uncured silicone polymer composition as a second layer on the first layer , (c) allowing the action of energy to cross-link the silicone polymer composition to form silicone rubber, characterised in that the uncured silicone polymer composition contains particles which generate thermal energy due to the action of energy from a magnetic field and / or a source that emits electromagnetic radiation, whereby the silicone polymer composition is cross-linked to form silicone rubber with a degree of cross-linking of at least more than 50%. (a) provision of the first layer , (b) arrangement of an uncured silicone polymer composition as a second layer on the first layer , (c) allowing the action of energy to cross-link the silicone polymer composition to form silicone rubber,
Method for chemiluminescent sulphur detection, wherein the method comprises the following steps: (a) oxidation of a gaseous starting mixture comprising one or more sulphur compounds to obtain an oxidized gas mixture, (b) reduction of the oxidized gas mixture as obtained in step (a) in the presence of a ceramic surface to obtain a gaseous mixture of reduced sulphur compounds, (c) reacting the mixture of reduced sulphur compounds obtained in step (b) with ozone to obtain a sulphur compound in excited state and measuring a chemiluminescent emission of the sulphur compound in excited state to obtain a measure for the amount of sulphur compounds in the gaseous starting mixture, characterized in that the ceramic surface in step (b) is a cordierite comprising surface. (a) oxidation of a gaseous starting mixture comprising one or more sulphur compounds to obtain an oxidized gas mixture, (b) reduction of the oxidized gas mixture as obtained in step (a) in the presence of a ceramic surface to obtain a gaseous mixture of reduced sulphur compounds, (c) reacting the mixture of reduced sulphur compounds obtained in step (b) with ozone to obtain a sulphur compound in excited state and measuring a chemiluminescent emission of the sulphur compound in excited state to obtain a measure for the amount of sulphur compounds in the gaseous starting mixture, characterized in that the ceramic surface in step (b) is a cordierite comprising surface.
A flow cover comprising: an inlet port and an outlet port configured to be fluidically coupled to a fluid network, a flow channel extending between the inlet and outlet ports and defining a volume in which fluid may flow therebetween, where the flow channel includes an input region that receives fluid through the inlet port , a diffuser region that includes inlet channels , wherein the diffuser region receives the fluid from the input region and separates the fluid into the inlet channels , a field region that receives the fluid from the inlet channels and is configured to direct the fluid across a substrate field that includes one or more reaction sites where desired reactions occur, a collector region that includes outlet channels , wherein the outlet channels receive the fluid from the field region , and an output region that receives the fluid from the collector region and delivers the fluid to the outlet port , wherein the input region and output region extend in a direction that is perpendicular to the field region, wherein in operation the fluid may flow through the input and output regions in a direction that is parallel to a gravitational force direction (G) and perpendicular to a flow direction of the field region .
A bearing arrangement for a wind turbine , comprising a bed frame , a support structure mounted to the bed frame , a shaft , bearings supporting the shaft rotatably around a shaft axis , and bearing housings supporting one of the bearings respectively, wherein the bearing housings are mounted on opposite faces of the support structure , the faces facing in the axial direction (x, -x) with respect to the shaft axis , characterized in that the bearing housings are exclusively connected to the bed frame via the support structure .
A method of analysing a resected tissue sample (S) containing tumour tissue, the method comprising - a procedure of o measuring localized concentrations of an analyte (C) at a plurality of spaced apart locations (dX,dZ) around a controlled depth (Z) below a surface (A) of the tissue sample (S), and o calculating a spatial variance (Cv) of the analyte (C) based on the plurality of measured concentrations around the controlled depth (Z); - repeating the procedure while varying the controlled depth (Z) to obtain the spatial variance (Cv) as a function of the controlled depth (Z); and - determining a resection margin of healthy tissue around the tumour tissue based on a section distance (R) between the tissue surface (A) and a depth below the tissue surface (A) where the measured spatial variance (Cv) crosses a predetermined threshold variance (Tv). - a procedure of o measuring localized concentrations of an analyte (C) at a plurality of spaced apart locations (dX,dZ) around a controlled depth (Z) below a surface (A) of the tissue sample (S), and o calculating a spatial variance (Cv) of the analyte (C) based on the plurality of measured concentrations around the controlled depth (Z); o measuring localized concentrations of an analyte (C) at a plurality of spaced apart locations (dX,dZ) around a controlled depth (Z) below a surface (A) of the tissue sample (S), and o calculating a spatial variance (Cv) of the analyte (C) based on the plurality of measured concentrations around the controlled depth (Z); - repeating the procedure while varying the controlled depth (Z) to obtain the spatial variance (Cv) as a function of the controlled depth (Z); and - determining a resection margin of healthy tissue around the tumour tissue based on a section distance (R) between the tissue surface (A) and a depth below the tissue surface (A) where the measured spatial variance (Cv) crosses a predetermined threshold variance (Tv).
Gas turbine comprising - a compressor for compressing an air mass flow flowing in an axial flow direction along the central longitudinal axis of the machine, and - a diffuser connected axially downstream of this compressor, which diffuser has a diffuser inlet and a plurality of air guiding elements and a diffuser outlet region , with a diffuser outlet , which is formed by a housing , wherein an air mass flow passes into the diffuser through the diffuser inlet and back out of the diffuser through the diffuser outlet , and in so doing flows away, owing to the air guiding elements , as a plurality of air mass part flows that are adjacent in the circumferential direction, also comprising - two mutually opposite can-type combustion chambers that are arranged radially further out, and - two opposite inflow ducts leading radially to the can-type combustion chambers, wherein the air mass flow leaving the diffuser can flow away, owing to the diffuser outlet region , into the inflow ducts , characterized in that at least two immediately adjacent air guiding elements of the plurality of air guiding elements are configured in such a way that they have mutually different components of an outflow angle α n , measurable in the circumferential direction, relative to a circumferential face formed by the outlet opening of the diffuser outlet , wherein the inclination angles of the air guiding elements , chosen in relation to the circumferential face , are chosen in dependence on their respective circumferential position at the diffuser outlet , and wherein the outflow angle α n and/or the inclination angle of the air guiding elements in relation to a circumferential face formed by an outlet opening of the diffuser outlet are smaller the greater the distance between the respective air guiding element and a mouth opening of the inflow duct . - a compressor for compressing an air mass flow flowing in an axial flow direction along the central longitudinal axis of the machine, and - a diffuser connected axially downstream of this compressor, which diffuser has a diffuser inlet and a plurality of air guiding elements and a diffuser outlet region , with a diffuser outlet , which is formed by a housing , wherein an air mass flow passes into the diffuser through the diffuser inlet and back out of the diffuser through the diffuser outlet , and in so doing flows away, owing to the air guiding elements , as a plurality of air mass part flows that are adjacent in the circumferential direction, also comprising - two mutually opposite can-type combustion chambers that are arranged radially further out, and - two opposite inflow ducts leading radially to the can-type combustion chambers, wherein the air mass flow leaving the diffuser can flow away, owing to the diffuser outlet region , into the inflow ducts ,
A general-purpose mobile communication device ("MCD") comprising: a communication interface module adapted to communicate speech of a user over a communication network, and characterized by : at least one module adapted to: detect use of the MCD for a voice call using the communication network; and in response to detecting use of the MCD for the voice call, initiate covert acquisition of cardiac information from the user of the MCD while the user is utilizing the MCD for the voice call, without initiation of said acquisition of cardiac information by the user, and without making the user aware of said acquisition of cardiac information. detect use of the MCD for a voice call using the communication network; and in response to detecting use of the MCD for the voice call, initiate covert acquisition of cardiac information from the user of the MCD while the user is utilizing the MCD for the voice call, without initiation of said acquisition of cardiac information by the user, and without making the user aware of said acquisition of cardiac information.
A robot cleaner comprising: a main body which forms an external shape; a moving means which moves the main body; a bumper which is disposed to protrude from an outer periphery of the main body; an impact sensor which is disposed obliquely in the main body to detect movement of the bumper; and a pressing unit having a curved end portion which presses the impact sensor , when the bumper moves, characterized in that the main body is connected to the bumper on a first surface and on a second surface perpendicular to the first surface. a main body which forms an external shape; a moving means which moves the main body; a bumper which is disposed to protrude from an outer periphery of the main body; an impact sensor which is disposed obliquely in the main body to detect movement of the bumper; and a pressing unit having a curved end portion which presses the impact sensor , when the bumper moves, characterized in that the main body is connected to the bumper on a first surface and on a second surface perpendicular to the first surface.
A method for intensifying the activation of detergent in laundry in a washing machine or washer-dryer , during the stage in which the detergent is introduced into the drum while the latter rotates in the washing tub of the machine at a speed V at which the laundry is at least partially distributed within the drum , comprising the introduction into the tub of a specified quantity of liquid for dissolving the detergent, and the recirculation of this quantity of washing liquid containing detergent by drawing it from the tub and subsequently introducing it through the laundry, the recirculation taking place for a period T, characterized in that during said period T the rotation of the drum with the laundry comprises at least one stage at a speed V1 ≥ KV for a period t which is less than T, wherein K is a multiplication factor which may or may not be an integer, in the range from 2 to 4, including the extreme values.
Ethylene-vinyl alcohol copolymer pellets comprising: an ethylene-vinyl alcohol copolymer; and water; wherein the ethylene-vinyl alcohol copolymer comprises monomer units including at least an ethylene unit and a vinyl alcohol unit, as well as a carboxylic acid group and a lactone ring present in polymer terminals of the ethylene-vinyl alcohol copolymer; wherein the carboxylic acid group includes carboxylic acid groups and carboxylic acid salt groups, wherein a carboxylic acid content (X) means a total content of the carboxylic acid groups and the carboxylic acid salt groups, wherein a ratio (Y/Z) of a lactone ring content (Y) to a sum (Z) of the carboxylic acid content (X) and the lactone ring content (Y) measured by a method recited in the description of the specification is from 62 to 80 % in molar ratio; and wherein the pellets have a water content measured by a method recited in the description of the specification of not higher than 0.5 wt.%. an ethylene-vinyl alcohol copolymer; and water; wherein the ethylene-vinyl alcohol copolymer comprises monomer units including at least an ethylene unit and a vinyl alcohol unit, as well as a carboxylic acid group and a lactone ring present in polymer terminals of the ethylene-vinyl alcohol copolymer; wherein the carboxylic acid group includes carboxylic acid groups and carboxylic acid salt groups, wherein a carboxylic acid content (X) means a total content of the carboxylic acid groups and the carboxylic acid salt groups, wherein a ratio (Y/Z) of a lactone ring content (Y) to a sum (Z) of the carboxylic acid content (X) and the lactone ring content (Y) measured by a method recited in the description of the specification is from 62 to 80 % in molar ratio; and wherein the pellets have a water content measured by a method recited in the description of the specification of not higher than 0.5 wt.%.
A hinge module , adapted for a portable electronic device, the hinge module comprising: a first bracket comprising a track ; a first rotating shaft disposed on the first bracket ; a linking rod having a first end and a second end opposite to each other; a second bracket having an extending part ; and a second rotating shaft disposed on the second bracket , wherein the second end of the linking rod is pivotably coupled to the second bracket via the extending part , and in a process, where the first bracket and the second bracket are rotated relative to each other, the first rotating shaft and the second rotating shaft are moved close to or away from each other; characterized in that the first end of the linking rod is pivotably supported on the first rotating shaft , wherein the second rotating shaft comprises a moving part movably and pivotably coupled to the track of the first bracket and is configured to rotate with the second bracket and slide in the track , and the first rotating shaft is fixedly disposed on the first bracket adjacent to an end of the track . a first bracket comprising a track ; a first rotating shaft disposed on the first bracket ; a linking rod having a first end and a second end opposite to each other; a second bracket having an extending part ; and a second rotating shaft disposed on the second bracket , wherein the second end of the linking rod is pivotably coupled to the second bracket via the extending part , and in a process, where the first bracket and the second bracket are rotated relative to each other, the first rotating shaft and the second rotating shaft are moved close to or away from each other; characterized in that the first end of the linking rod is pivotably supported on the first rotating shaft , wherein the second rotating shaft comprises a moving part movably and pivotably coupled to the track of the first bracket and is configured to rotate with the second bracket and slide in the track , and the first rotating shaft is fixedly disposed on the first bracket adjacent to an end of the track .
A method performed by a communications device , the method comprising: • receiving a first signaling, being a higher layer signaling, from a communications controller, and decoding the first signaling received from the communications controller, wherein the first signaling comprises encoded first information indicating a set of sequence groups and an encoded x, being an encoded and received version of n hop ⋅ 30 + ƒ ss PUSCH , wherein n hop is an integer between zero and sixteen and corresponds to a sequence group hopping pattern information for an uplink reference signal of a Physical Uplink Shared Channel, PUSCH, and ƒ ss PUSCH is an integer between zero and twenty-nine and corresponds to a sequence group shift information for the uplink reference signal; • determining the sequence group hopping pattern information n hop in accordance with the formula: n hop = ⌊ x 30 ⌋ , wherein └ ┘ is the floor function; • determining the sequence group shift information ƒ ss PUSCH in accordance with the formula: ƒ ss PUSCH = x mod 30 ; • receiving a second signaling from the communications controller, and decoding the second signaling, wherein the second signaling comprises encoded second information related to a selected sequence group within the set of sequence groups, the set of sequence groups being indicated by the received encoded first information; • modulating an uplink reference signal with a sequence from the selected sequence group based on the sequence group hopping pattern information n hop and the sequence group shift information ƒ ss PUSCH ; and • transmitting the modulated uplink reference signal. • receiving a first signaling, being a higher layer signaling, from a communications controller, and decoding the first signaling received from the communications controller, wherein the first signaling comprises encoded first information indicating a set of sequence groups and an encoded x, being an encoded and received version of n hop ⋅ 30 + ƒ ss PUSCH , wherein n hop is an integer between zero and sixteen and corresponds to a sequence group hopping pattern information for an uplink reference signal of a Physical Uplink Shared Channel, PUSCH, and ƒ ss PUSCH is an integer between zero and twenty-nine and corresponds to a sequence group shift information for the uplink reference signal; • determining the sequence group hopping pattern information n hop in accordance with the formula: n hop = ⌊ x 30 ⌋ , wherein └ ┘ is the floor function; • determining the sequence group shift information ƒ ss PUSCH in accordance with the formula: ƒ ss PUSCH = x mod 30 ; • receiving a second signaling from the communications controller, and decoding the second signaling, wherein the second signaling comprises encoded second information related to a selected sequence group within the set of sequence groups, the set of sequence groups being indicated by the received encoded first information; • modulating an uplink reference signal with a sequence from the selected sequence group based on the sequence group hopping pattern information n hop and the sequence group shift information ƒ ss PUSCH ; and • transmitting the modulated uplink reference signal.