mhurhangee/patent-ind-claim-en huggingface dataset:
A catheter comprising an elongated catheter body having proximal and distal ends and at least one irrigation lumen therethrough and an irrigated electrode assembly at the distal end of the catheter body, the irrigated electrode assembly comprising a plurality of spines connected at their proximal ends, each spine comprising a plurality of electrodes , and wherein each spine further comprises a spine lumen and a plurality of irrigation ports in fluid communication with the spine lumen, wherein each spine lumen is in fluid communication with the irrigation lumen, wherein the irrigation ports comprise a combination of dedicated irrigation ports and integrated irrigation ports wherein each integrated irrigation port is integrated with one of the plurality of electrodes, the electrode having a plurality of perforations , and wherein the irrigation ports are distributed evenly across the irrigated electrode assembly. wherein each spine further comprises a spine lumen and a plurality of irrigation ports in fluid communication with the spine lumen, wherein each spine lumen is in fluid communication with the irrigation lumen, wherein the irrigation ports comprise a combination of dedicated irrigation ports and integrated irrigation ports wherein each integrated irrigation port is integrated with one of the plurality of electrodes, the electrode having a plurality of perforations , and wherein the irrigation ports are distributed evenly across the irrigated electrode assembly.
A tire wear measuring apparatus comprising: a signal receiver configured to measure acceleration inside the tire with respect to a radial direction of the tire , for each point inside the tire ; a signal analyzer configured to receive signal information from the signal receiver and estimate a tread wear rate of the tire ; a transmitter configured to receive and transmit analysis information, which is information on the tread wear rate of the tire , from the signal analyzer ; and a control module configured to receive the analysis information from the transmitter and generate a control signal for a vehicle to which the tire is installed, characterized in that the signal analyzer is configured to estimate the tread wear rate of the tire by calculating a bending stiffness variation rate of the tire using radial acceleration inside the tire . a signal receiver configured to measure acceleration inside the tire with respect to a radial direction of the tire , for each point inside the tire ; a signal analyzer configured to receive signal information from the signal receiver and estimate a tread wear rate of the tire ; a transmitter configured to receive and transmit analysis information, which is information on the tread wear rate of the tire , from the signal analyzer ; and a control module configured to receive the analysis information from the transmitter and generate a control signal for a vehicle to which the tire is installed, characterized in that the signal analyzer is configured to estimate the tread wear rate of the tire by calculating a bending stiffness variation rate of the tire using radial acceleration inside the tire .
A wind turbine, having a floating foundation , a support structure and a generator , said generator including a nacelle and a rotor ; the generator being an up-wind generator, wherein the floating foundation is assembled from tubular steel sections of uniform diameter, said tubular steel sections forming a foundation frame with a mooring turret at an apex of said foundation frame, said foundation frame being generally situated in one plane; said support structure having at least two beams extending substantially transverse to said plane of said floating foundation , said beams being connected at a first end to a respective opposite side of said foundation frame and at a second end to said nacelle ; said support structure together with said floating foundation forming a triangle with said nacelle fixedly mounted at an apex of said support structure, said rotor facing the apex of said foundation frame: - in a first alternative, said foundation frame having a general A-shape, and said beams of said support structure being attached close to each end of a transverse section extending between two of said tubular steel sections of said A-shaped foundation frame, - and in a second alternative, said support structure being generally A-shaped and said beams having a transverse section extending between said at least two beams at a distance from the floating foundation . - in a first alternative, said foundation frame having a general A-shape, and said beams of said support structure being attached close to each end of a transverse section extending between two of said tubular steel sections of said A-shaped foundation frame, - and in a second alternative, said support structure being generally A-shaped and said beams having a transverse section extending between said at least two beams at a distance from the floating foundation .
A method of making cellulose filaments (CF) comprising: providing a high consistency cellulose pulp with a consistency of 20 to 65 wt% solids; a multi-pass high consistency refining of the high consistency cellulose pulp with a total specific refining energy (Energy HC ) of 2,000 to 18,000 kWh/t; to produce a refined cellulose material; diluting the refined cellulose material to a low consistency of 0.1 to 6 wt% solids to produce a low consistency cellulose material; and a low consistency refining of the low consistency cellulose material with a total specific refining energy (Energy LC ) of 15 to 2,000 kWh/t, wherein the method has a combined total specific refining energy (Energy C ) that is a sum of the total specific refining energy for the multi-pass high consistency refining plus the total specific refining energy for the low consistency refining (Energy HC + Energy LC ), wherein the total specific refining energy for the low consistency refining (Energy LC ) divided by the combined total specific refining energy (Energy C ) is an energy percentage of 0.08 to 50%, and wherein the recovered cellulose filaments have an aspect ratio of at least 200, and diameters of 30-500 nm. providing a high consistency cellulose pulp with a consistency of 20 to 65 wt% solids; a multi-pass high consistency refining of the high consistency cellulose pulp with a total specific refining energy (Energy HC ) of 2,000 to 18,000 kWh/t; to produce a refined cellulose material; diluting the refined cellulose material to a low consistency of 0.1 to 6 wt% solids to produce a low consistency cellulose material; and a low consistency refining of the low consistency cellulose material with a total specific refining energy (Energy LC ) of 15 to 2,000 kWh/t, wherein the method has a combined total specific refining energy (Energy C ) that is a sum of the total specific refining energy for the multi-pass high consistency refining plus the total specific refining energy for the low consistency refining (Energy HC + Energy LC ), wherein the total specific refining energy for the low consistency refining (Energy LC ) divided by the combined total specific refining energy (Energy C ) is an energy percentage of 0.08 to 50%, and wherein the recovered cellulose filaments have an aspect ratio of at least 200, and diameters of 30-500 nm.
Forestry machine which is provided with a running gear arrangement , a primary energy source, a cable winch , a stanchion and an adjustable ramp plate , wherein the forestry machine does not have a driver station for an operator, characterized in that the mobile forestry machine has an electric drive system which has at least one electric traction motor and in which a battery that supplies electrical energy to the at least one electric traction motor is provided as the primary energy source, wherein, as seen in the vehicle longitudinal direction (L), the battery is arranged at the front, the cable winch is arranged adjacent to the battery , the stanchion is arranged adjacent to the cable winch and the adjustable ramp plate is arranged at the rear of the vehicle.
Screen lift system for flat screens for arrangement in furniture or built-in furniture , having a screen support which is arranged such that it can be moved in the lift direction and can be moved by means of a drive motor , having a weight compensation device which is assigned to the screen support and has a ballast body which compensates for the weight of the screen support and can be moved in the lift direction , and at least one flexurally slack tension element , which is guided over an upper guide pulley and on which the screen support hangs on the one hand from the upper guide pulley and on the other hand from the ballast body , the traction element being designed to rotate and running over the upper guide pulley and a lower guide pulley , and the drive motor driving one of the guide pulleys .
The random copolymer GAS914 having the following structure: wherein n represents the average degree of polymerization, x represents the fraction of glycosylated monomer; and 1 - x represents the fraction of thioglycerol-capped monomer, for use in the prevention of an infection in a subject, wherein said infection is caused by bacteria of the gastrointestinal tract, and the infection occurs in blood, heart, cardiovascular system, liver, lung, respiratory tract, kidney, urinary tract, nervous central system, skin, subcutaneous tissues or surgical wounds.
An electrohydrodynamic print head comprising a plurality of nozzles arranged in a plurality of wells , extraction electrodes located around said wells at a level below said nozzles , shielding electrodes (18a- 18h) located around said wells at a level below said extraction electrodes , characterized in that , there are, for each well , several shielding electrodes (18a- 18h) located at different angular positions adjacent to said well . a plurality of nozzles arranged in a plurality of wells , extraction electrodes located around said wells at a level below said nozzles , shielding electrodes (18a- 18h) located around said wells at a level below said extraction electrodes , characterized in that , there are, for each well , several shielding electrodes (18a- 18h) located at different angular positions adjacent to said well .
Pipe comprising at least two layers, wherein at least one of the layers consists of a polymeric material containing at least one thermoplastic polyolefin, characterised in that - the thermoplastic polyolefin contains a PE 100-RC material which fulfils the minimum requirements according to PAS 1075:2009-04, and - the polymeric material contains in addition at least one heat stabiliser. - the thermoplastic polyolefin contains a PE 100-RC material which fulfils the minimum requirements according to PAS 1075:2009-04, and - the polymeric material contains in addition at least one heat stabiliser.
A (meth)acrylamide based urethane oligomer, which has one or two or more kinds of a skeleton selected from an ether skeleton, an ester skeleton, a silicone skeleton, and an acrylic skeleton in a molecule, at least one (meth)acrylamide group, wherein the (meth)acrylamide group is derived from a (meth)acrylamide having a hydroxyl group represented by general formula : wherein R 1 represents a hydrogen atom or a methyl group; R 2 and R 3 may be the same or different from each other; R 2 and R 3 are selected from a hydrogen atom, or a linear or branched alkyl group having 1 to 6 carbon atoms or an aliphatic ring or an aromatic ring having 3 to 6 carbon atoms, which may be substituted with a hydroxyl group; or R 2 and R 3 form, together with the nitrogen atom attached, a saturated or unsaturated 5- to 7-membered ring, which can additionally contain an oxygen atom or a nitrogen atom other than the aforementioned nitrogen atom, compounds where both R 2 and R 3 are a hydrogen atom and where both R 2 and R 3 are an alkyl group are excluded, and wherein R 2 and R 3 have one or more hydroxyl groups in total; and a shrinkage rate of 5% or less before and after active energy curing, wherein the shrinkage rate value of 5% or less is measured by a resin curing shrinkage stress measuring device (CUSTRON); and wherein the (meth)acrylamide based urethane oligomer further comprises 5% by weight or less of a component having molecular weight of less than 1000 excluding (meth)acrylamide having a hydroxyl group; provided that the urethane oligomer does not have a carbonate skeleton derived from a polycarbonate polyol having hydroxyl groups at both terminals 3-methyl-1,5-pentanediol/1,6-hexanediol 9/1 and weight average molecular weight of 1,000. R 2 and R 3 may be the same or different from each other; R 2 and R 3 are selected from a hydrogen atom, or a linear or branched alkyl group having 1 to 6 carbon atoms or an aliphatic ring or an aromatic ring having 3 to 6 carbon atoms, which may be substituted with a hydroxyl group; or R 2 and R 3 form, together with the nitrogen atom attached, a saturated or unsaturated 5- to 7-membered ring, which can additionally contain an oxygen atom or a nitrogen atom other than the aforementioned nitrogen atom, compounds where both R 2 and R 3 are a hydrogen atom and where both R 2 and R 3 are an alkyl group are excluded, and wherein R 2 and R 3 have one or more hydroxyl groups in total; and a shrinkage rate of 5% or less before and after active energy curing, wherein the shrinkage rate value of 5% or less is measured by a resin curing shrinkage stress measuring device (CUSTRON); and wherein the (meth)acrylamide based urethane oligomer further comprises 5% by weight or less of a component having molecular weight of less than 1000 excluding (meth)acrylamide having a hydroxyl group; provided that the urethane oligomer does not have a carbonate skeleton derived from a polycarbonate polyol having hydroxyl groups at both terminals 3-methyl-1,5-pentanediol/1,6-hexanediol 9/1 and weight average molecular weight of 1,000.
A nutritional drink in the form of a liquid oil-in-water emulsion that comprises vegetable oil, said emulsion comprising: • 25-70 wt.% virgin olive oil; • 25-70 wt.% of water; • 1-15% by weight of water of a sweetening agent selected from saccharide sweeteners, polyol sweeteners and combinations thereof; • 0.5-8 wt.% of an emulsifying agent selected from protein emulsifiers, phospholipids and combinations thereof; and • flavouring. • 25-70 wt.% virgin olive oil; • 25-70 wt.% of water; • 1-15% by weight of water of a sweetening agent selected from saccharide sweeteners, polyol sweeteners and combinations thereof; • 0.5-8 wt.% of an emulsifying agent selected from protein emulsifiers, phospholipids and combinations thereof; and • flavouring.
A tool spindle structure comprising: a housing ; a tool spindle adapted to be rotatably supported by a bearing in the housing; a clamp rod inserted in a through hole of the tool spindle and adapted to advance and retract along an axial direction of the tool spindle ; a biasing member adapted to apply a biasing force for retracting the clamp rod to the tool spindle ; and unclamping means adapted to apply a thrust force for advancing the clamp rod against the biasing force to the clamp rod , wherein: the clamp rod is retracted to fix a tool to the tool spindle , the tool being mounted at a distal end portion of the tool spindle , and the clamp rod is advanced to unfix the tool from the tool spindle , the tool spindle is supported in the housing such that displacement thereof is allowed along the axial direction; and a stopper member is adapted to restrict a displacement amount of the tool spindle that is displaceable with an axial load applied to the bearing by the advance of the clamp rod , wherein the stopper member is fixed to the housing, and a predetermined clearance (δ) is defined between the stopper member and the tool spindle characterised in that : the tool spindle includes a cylindrical portion at the distal end portion of the tool spindle , the cylindrical portion having a mount hole where the tool is to be mounted, and the clearance (δ) is defined between the stopper member and an endmost surface of the cylindrical portion . a housing ; a tool spindle adapted to be rotatably supported by a bearing in the housing; a clamp rod inserted in a through hole of the tool spindle and adapted to advance and retract along an axial direction of the tool spindle ; a biasing member adapted to apply a biasing force for retracting the clamp rod to the tool spindle ; and unclamping means adapted to apply a thrust force for advancing the clamp rod against the biasing force to the clamp rod , the clamp rod is retracted to fix a tool to the tool spindle , the tool being mounted at a distal end portion of the tool spindle , and the clamp rod is advanced to unfix the tool from the tool spindle , the tool spindle is supported in the housing such that displacement thereof is allowed along the axial direction; and a stopper member is adapted to restrict a displacement amount of the tool spindle that is displaceable with an axial load applied to the bearing by the advance of the clamp rod , wherein the stopper member is fixed to the housing, and a predetermined clearance (δ) is defined between the stopper member and the tool spindle characterised in that : the tool spindle includes a cylindrical portion at the distal end portion of the tool spindle , the cylindrical portion having a mount hole where the tool is to be mounted, and the clearance (δ) is defined between the stopper member and an endmost surface of the cylindrical portion . the tool spindle includes a cylindrical portion at the distal end portion of the tool spindle , the cylindrical portion having a mount hole where the tool is to be mounted, and the clearance (δ) is defined between the stopper member and an endmost surface of the cylindrical portion .
An active cascode circuit, comprising: an input (in) and an output (iout); a first transistor (M2) having a first terminal, a second terminal and a gate, the first terminal coupled to the output and the second terminal coupled to the input; a load coupled between the gate and a first node (v1); a second transistor (M3) having a backgate, a gate, a drain and a source, the drain of the second transistor (M3) coupled to the gate of the first transistor, and the source of the second transistor coupled to a second node (v2); characterized by the gate of the second transistor being coupled to the input, and a control circuit (cc1) having a control output coupled to the backgate of the second transistor, the control circuit configured to provide a voltage on the backgate of the second transistor to adjust the gate to source voltage (VGS) of the second transistor so as to set a voltage at the input to a target value. an input (in) and an output (iout); a first transistor (M2) having a first terminal, a second terminal and a gate, the first terminal coupled to the output and the second terminal coupled to the input; a load coupled between the gate and a first node (v1); a second transistor (M3) having a backgate, a gate, a drain and a source, the drain of the second transistor (M3) coupled to the gate of the first transistor, and the source of the second transistor coupled to a second node (v2); characterized by the gate of the second transistor being coupled to the input, and a control circuit (cc1) having a control output coupled to the backgate of the second transistor, the control circuit configured to provide a voltage on the backgate of the second transistor to adjust the gate to source voltage (VGS) of the second transistor so as to set a voltage at the input to a target value.
Charge detecting apparatus comprising: a radiation sensor having a first electrode (E1) and a second electrode (E2) for collecting charges of opposite sign and configured to provide to a collection terminal , connected to the first electrode (E1), a charge signal (S CH ) proportional to an incident radiation; the radiation sensor defining a sensor capacitance (C DET ) between said first (E1) and second electrode (E2); a charge preamplifier configured to receive the charge signal (S CH ), convert the charge signal into an output electrical signal (V OUT ; V AC OUT ) and comprising an amplifier having a first output terminal (205; OUT1) ; an electrical connection between the first output terminal (205; OUT1) and the second electrode (E2) configured so that said sensor capacitance (C DET ) results in feedback for the amplifier ; characterised by the fact that the charge preamplifier is configured to integrate the charge signal (S CH ) and convert the charge signal into a voltage output signal (V OUT ; V AC OUT ) according to said sensor capacitance (C DET ) operating as integration capacitance. a radiation sensor having a first electrode (E1) and a second electrode (E2) for collecting charges of opposite sign and configured to provide to a collection terminal , connected to the first electrode (E1), a charge signal (S CH ) proportional to an incident radiation; the radiation sensor defining a sensor capacitance (C DET ) between said first (E1) and second electrode (E2); a charge preamplifier configured to receive the charge signal (S CH ), convert the charge signal into an output electrical signal (V OUT ; V AC OUT ) and comprising an amplifier having a first output terminal (205; OUT1) ; an electrical connection between the first output terminal (205; OUT1) and the second electrode (E2) configured so that said sensor capacitance (C DET ) results in feedback for the amplifier ; characterised by the fact that the charge preamplifier is configured to integrate the charge signal (S CH ) and convert the charge signal into a voltage output signal (V OUT ; V AC OUT ) according to said sensor capacitance (C DET ) operating as integration capacitance.
Flexible pipe comprising at least one pressure sheath , at least one tensile armour layer disposed externally relative to the pressure sheath , and a connection end-piece , the end-piece comprising: - an end vault extending along a central axis (A-A'); - an exterior cover fastened on to the end vault and delimiting with the end vault , a reception chamber for receiving an end section of the armour elements ; - at least one annular member applied externally over the armour elements of an armour layer , the annular member being accommodated at least partially in the reception chamber between the armour elements and the exterior cover ; characterised in that the annular member applies over the armour elements a radial clamping pressure towards the central axis (A-A ') that is greater than 100 bars, and in that the annular member is held in position axially relative to the end vault by being in engagement axially with the end vault , the annular member comprising at least one axial attachment member for attachment on the end vault , or/and by being in engagement radially towards the exterior with the cover , an axial contact being present between a rear edge of the annular member and the cover . - an end vault extending along a central axis (A-A'); - an exterior cover fastened on to the end vault and delimiting with the end vault , a reception chamber for receiving an end section of the armour elements ; - at least one annular member applied externally over the armour elements of an armour layer , the annular member being accommodated at least partially in the reception chamber between the armour elements and the exterior cover ;
A method for producing a lactic acid based polymer, comprising the step of co-polymerisation a lactide with a cyclic dimer of another α-hydroxy-acid as co-monomer of opposite α-carbon chirality.