mhurhangee/patent-ind-claim-en huggingface dataset:
A functional monomer of a rare earth compound or a metal compound, comprising: a mother solution; an organic ester, wherein the organic ester is an acrylate or an epoxy ester; an additive agent and deionized water; wherein: the mother solution comprises a rare earth compound or a metal compound, an organic acid, an organic amine and deionized water; wherein the rare earth compound or the metal compound is an oxide, a hydroxide, or a carbonate of a rare earth or a metal, or a mixture thereof; wherein the rare earth is lanthanum, cerium, europium, terbium or neodymium; the metal is zinc, calcium, magnesium, manganese, copper, nickel, aluminum, niobium, molybdenum, ruthenium, tungsten, rhenium or hafnium; characterized in that the organic acid is citric acid, maleic acid, ethylenediaminetetraacetic acid (EDTA), succinic acid, adipic acid, or a mixture thereof. solution; an organic ester, wherein the organic ester is an acrylate or an epoxy ester; an additive agent and deionized water; wherein: the mother solution comprises a rare earth compound or a metal compound, an organic acid, an organic amine and deionized water; wherein the rare earth compound or the metal compound is an oxide, a hydroxide, or a carbonate of a rare earth or a metal, or a mixture thereof; wherein the rare earth is lanthanum, cerium, europium, terbium or neodymium; the metal is zinc, calcium, magnesium, manganese, copper, nickel, aluminum, niobium, molybdenum, ruthenium, tungsten, rhenium or hafnium; characterized in that the organic acid is citric acid, maleic acid, ethylenediaminetetraacetic acid (EDTA), succinic acid, adipic acid, or a mixture thereof.
A method of conversion of heat into fluid power including - pumping of the working liquid into the liquid reservoir of at least one of two or more hydropneumatic accumulators with gas compression in its gas reservoir , - gas expansion in the gas reservoir of at least one accumulator with displacement of the working liquid from its liquid reservoir as well as - supply of heat to the gas and removal of heat from the gas performed so that the average temperature of the gas during expansion is higher than that during compression, wherein heat is supplied to the gas by transferring the gas through a hotter heat exchanger while heat is removed from the gas by transferring the gas through another, colder heat exchanger while the gas is transferred between the gas reservoirs of different accumulators through said heat exchangers , wherein the respective liquid reservoir is separated by a movable separator from the gas reservoir ; wherein the walls of the gas reservoir of at least one accumulator are maintained colder and the gas is transferred into it through the colder heat exchanger while the walls of the gas reservoir of another accumulator , at least one, are maintained hotter and the gas is transferred into it through the hotter heat exchanger , wherein the walls of the liquid reservoir of at least one accumulator and the working liquid in it are maintained colder and the walls of the liquid reservoir of another accumulator , at least one, and the working liquid in it are maintained hotter, wherein the hotter working liquid is separated from the colder working liquid by at least one movable heat insulator , wherein the gas is transferred between the gas reservoirs by pumping the liquid into the liquid reservoir of at least one of these accumulators and displacing the liquid from the liquid reservoir of another accumulator , at least one, with a liquid flow created between the liquid reservoirs of these accumulators so that the pressure difference between any parts of the liquid in this flow does not exceed 30% of the pressure of the liquid in the liquid reservoir into which it is pumped. - pumping of the working liquid into the liquid reservoir of at least one of two or more hydropneumatic accumulators with gas compression in its gas reservoir , - gas expansion in the gas reservoir of at least one accumulator with displacement of the working liquid from its liquid reservoir as well as - supply of heat to the gas and removal of heat from the gas performed so that the average temperature of the gas during expansion is higher than that during compression,
A method for detecting and managing data from a plurality of measuring devices (M) in a distributed system comprising a plurality of measuring stations (MS) with in each case a plurality of measuring devices (M) and a server computer unit (S), wherein the server computer unit (S) is connected to a communication network (N), wherein measured values can be retrieved from at least one measuring device (M) via the communication network (N), wherein in at least one client station (CS) with at least one client computer unit (C), the data made available by retrieval via the server computer units (S) of the measuring stations (MS) are retrieved via a communication network (N) and further processed, wherein the measured values are processed in the server computer unit (S) into client-enabled data and made available, characterised in that the server computer unit (S) receives current measured values cyclically from the measuring station, which measured values the server computer unit (S) makes available for retrieval after processing into client-enabled data.
A package for providing an enclosed interior environment capable of being sterilized, the package comprising a gas permeable fibrous nonwoven sheet structure, polymeric tie layer, and package substrate, the nonwoven sheet structure having a first surface and a second surface; the enclosed interior environment being formed by sealing an area of contact between the first surface of the nonwoven sheet structure and the package structure, the sealed area of contact being formed by the polymeric tie layer, wherein the first surface of the nonwoven sheet structure is pre-bonded with an embossed impression pattern at least within the sealed area of contact, and wherein the second surface of the nonwoven sheet structure has a smooth surface free of any embossing.
A defibrillation generator for an implantable defibrillation system, comprising a housing , a connector block for connecting an electrode lead assembly , which is to be non-transvenously implanted in a patient, and a control device for controlling the operation of the defibrillation generator , wherein the connector block has two connectors , to each of which an electrode lead of the electrode lead assembly , which electrode leads have at least one defibrillation electrode pole , is connectable, the control device being configurable to assume a first operating state if an electrode lead is connected to just one of the two connectors , or a second operating state if electrode leads are connected to each of the two connectors , in order to provide a defibrillation function in the first operating state via the electrode lead connected to the one of the connectors and a defibrillation function in the second operating state via the electrode leads connected to the two connectors , characterized in that the control device has a first receiving channel for processing ventricular signals received via the electrode lead assembly and a second receiving channel for processing atrial signals received via the electrode lead assembly , wherein the second receiving channel has a different gain and/or different filter characteristic than the first receiving channel for processing the atrial signals separately from the venticular signals. the connector block has two connectors , to each of which an electrode lead of the electrode lead assembly , which electrode leads have at least one defibrillation electrode pole , is connectable, the control device being configurable to assume a first operating state if an electrode lead is connected to just one of the two connectors , or a second operating state if electrode leads are connected to each of the two connectors , in order to provide a defibrillation function in the first operating state via the electrode lead connected to the one of the connectors and a defibrillation function in the second operating state via the electrode leads connected to the two connectors , characterized in that the control device has a first receiving channel for processing ventricular signals received via the electrode lead assembly and a second receiving channel for processing atrial signals received via the electrode lead assembly , wherein the second receiving channel has a different gain and/or different filter characteristic than the first receiving channel for processing the atrial signals separately from the venticular signals.
A lithography mould for nanoscale printing, comprising a front face having at least one pattern intended to be transferred by pressing into a printable layer , said mould comprises: - at least one flexible membrane made of an inorganic material forming said front face and bearing the at least one pattern , the at least one membrane also having a rear face opposite to said front face , - a frame secured to a periphery of the at least one membrane and configured to form with said rear face at least one cavity , the mould being configured so that a pressurisation of the at least one cavity causes a deformation of the at least one membrane generating a movement of the at least one pattern in a printing direction bringing the at least one pattern away from the frame , characterised in that the at least one membrane being tensioned so that bending f thereof under the effect of its own weight is lower than a predetermined alignment tolerance of the at least one pattern , the alignment tolerance being lower than or equal to 20 nm (10 -9 metres). - at least one flexible membrane made of an inorganic material forming said front face and bearing the at least one pattern , the at least one membrane also having a rear face opposite to said front face , - a frame secured to a periphery of the at least one membrane and configured to form with said rear face at least one cavity ,
Solid oral pharmaceutical composition comprising as sole active ingredient naloxone or a pharmaceutically acceptable salt thereof, wherein the composition exhibits delayed release of the active ingredient and an in-vitro dissolution of the active ingredient, measured at 75 rpm in 500 ml of 0.1 N hydrochloric acid at 37°C using the Ph. Eur. paddle stirrer method, of from 0% to 75% in 2 h, from 3% to 95% in 4 h, from 20% to 100% in 10 h, from 30% to 100% in 16 h, from 50% to 100% in 24 h and over 80% in 36 h, the composition comprising a matrix wherein the matrix-forming agent comprises glycerol dibehenate.
An atomization process for manufacturing a metal powder or an alloy powder having a melting point of 500° Celsius to 1800° Celsius, comprising: providing a melt of said metal or alloy having said melting point of 500° Celsius to 1800° Celsius through a feed tube, the metal being an element chosen from Al, Fe, Ni, Co, Mn, Ti, Ag, Cu, Mo, Pt, Pd and Au, the alloy comprising at least one element chosen from Al, Fe, Ni, Co, Mn, Ti, Mo, Pt, Pd and Au; diverting said melt at a diverting angle of 10 to less than 90 degrees with respect to a central axis of the feed tube to obtain a diverted melt; directing the diverted melt to an atomization area; delivering water to an atomization chamber used for said atomization process; and providing at least one atomization gas stream to the atomization area; wherein the at least one atomization gas is delivered to an atomization head through at least two gas inlets oriented in a non-perpendicular way with respect to the atomization head, the at least two gas inlets providing a swirl movement in the atomization head prior to the gas exit; and creating a dynamic rotational effect around the central axis in the atomization area. providing a melt of said metal or alloy having said melting point of 500° Celsius to 1800° Celsius through a feed tube, the metal being an element chosen from Al, Fe, Ni, Co, Mn, Ti, Ag, Cu, Mo, Pt, Pd and Au, the alloy comprising at least one element chosen from Al, Fe, Ni, Co, Mn, Ti, Mo, Pt, Pd and Au; diverting said melt at a diverting angle of 10 to less than 90 degrees with respect to a central axis of the feed tube to obtain a diverted melt; directing the diverted melt to an atomization area; delivering water to an atomization chamber used for said atomization process; and providing at least one atomization gas stream to the atomization area;
Compostable lid for sealing a beverage capsule, composed of a multi-layer complex comprising at least: - a non-woven material containing fibres, at least 50% of which by weight are polylactic acid fibres (PLA), - a film containing a polyhydroxyalcanoate (PHA) polymer other than PLA, characterized in that the film has a thickness between 50 μm and 300 μm. - a non-woven material containing fibres, at least 50% of which by weight are polylactic acid fibres (PLA), - a film containing a polyhydroxyalcanoate (PHA) polymer other than PLA, characterized in that the film has a thickness between 50 μm and 300 μm.
A system for controlling a prosthetic or orthotic device (POD), the system comprising: a foot portion; a shank portion coupled to the foot portion, the foot portion and the shank portion forming a joint having a neutral angle that is used during a first gait phase of a gait cycle to adjust a joint angle between the foot portion and the shank portion; at least one first sensor configured to measure electromyography (EMG) signals from a first muscle over a period of time; a controller configured to receive a first EMG signal from the at least one first sensor and to determine an adjusted neutral angle based at least in part on the first EMG signal, wherein the adjusted neutral angle is configured for use during a second gait phase of the gait cycle, wherein the second gait phase is implemented after the first gait phase; and at least one actuator communicatively coupled to the controller, the at least one actuator configured to actuate the foot portion with respect to the shank portion such that the adjusted neutral angle is used during a second gait phase of the gait cycle to adjust the joint angle between the foot portion and the shank portion. a foot portion; a shank portion coupled to the foot portion, the foot portion and the shank portion forming a joint having a neutral angle that is used during a first gait phase of a gait cycle to adjust a joint angle between the foot portion and the shank portion; at least one first sensor configured to measure electromyography (EMG) signals from a first muscle over a period of time; a controller configured to receive a first EMG signal from the at least one first sensor and to determine an adjusted neutral angle based at least in part on the first EMG signal, wherein the adjusted neutral angle is configured for use during a second gait phase of the gait cycle, wherein the second gait phase is implemented after the first gait phase; and at least one actuator communicatively coupled to the controller, the at least one actuator configured to actuate the foot portion with respect to the shank portion such that the adjusted neutral angle is used during a second gait phase of the gait cycle to adjust the joint angle between the foot portion and the shank portion.
Waste container , with - a cassette receiving area , into which a refill cassette including tubular material is insertable; - a closure mechanism with two pivotable closure bodies , between which a bag section of the tubular material outstanding from a refill cassette inserted in the cassette receiving area is clampable; and - an actuating device , wherein a pivoting movement of the closure bodys is executable or arrangeable by means of a manual actuating of the actuating device , wherein the actuating device has a movable actuating unit , which is movable by an external pressure load, and wherein the actuating device has multiple transmission elements connecting the actuating unit with the closure bodies , wherein a linear movement of the actuating unit is convertable into a pivoting movement of the closure bodies by the multiple transmission elements ; characterized in that a first transmission element is hingedly attached to the actuating unit and a first closure body and a second transmission element is hingedly attached to the actuating unit and a second closure body . - a cassette receiving area , into which a refill cassette including tubular material is insertable; - a closure mechanism with two pivotable closure bodies , between which a bag section of the tubular material outstanding from a refill cassette inserted in the cassette receiving area is clampable; and - an actuating device , wherein a pivoting movement of the closure bodys is executable or arrangeable by means of a manual actuating of the actuating device , wherein the actuating device has a movable actuating unit , which is movable by an external pressure load, and wherein the actuating device has multiple transmission elements connecting the actuating unit with the closure bodies , wherein a linear movement of the actuating unit is convertable into a pivoting movement of the closure bodies by the multiple transmission elements ;
A method of designing an electrode arrangement, the method comprising the following steps: providing a start configuration of a flexible implantable electrode arrangement comprising an electrically insulating carrier structure and an electrically conductive layer , which includes an electrically conductive thin film layer, the electrically conductive thin film layer being structured so as to form at least one implantable electrode; exciting the electrode arrangement with an alternating excitation voltage or an alternating excitation current; determining a mechanical deflection of the electrode in response to the excitation; modifying the electrode arrangement so that a mechanical resonance of the electrode in response to the electric excitation will assume a minimum. providing a start configuration of a flexible implantable electrode arrangement comprising an electrically insulating carrier structure and an electrically conductive layer , which includes an electrically conductive thin film layer, the electrically conductive thin film layer being structured so as to form at least one implantable electrode; exciting the electrode arrangement with an alternating excitation voltage or an alternating excitation current; determining a mechanical deflection of the electrode in response to the excitation; modifying the electrode arrangement so that a mechanical resonance of the electrode in response to the electric excitation will assume a minimum.
A tibial implant comprising: a tibial tray including a top surface and a bottom surface ; and a support member extending from the bottom surface of the tibial tray, the support member being arranged and configured to be at least partially positioned within an intramedullary canal of a patient's bone for coupling the tibial implant to the patient's bone during use, the support member including: a stem portion : and one or more keels extending from the stem portion; wherein the tibial implant further comprises a chamfer loading zone between the bottom surface of the tibial tray and the support member, the chamfer loading zone providing a variable thickness transition area between the bottom surface of the tibial tray and the support member to transfer loads between the tibial tray and the support member, characterized in that the chamfer loading zone is positioned between a radiused surface associated with the support member and the bottom surface of the tibial tray. a tibial tray including a top surface and a bottom surface ; and a support member extending from the bottom surface of the tibial tray, the support member being arranged and configured to be at least partially positioned within an intramedullary canal of a patient's bone for coupling the tibial implant to the patient's bone during use, the support member including: a stem portion : and one or more keels extending from the stem portion; wherein the tibial implant further comprises a chamfer loading zone between the bottom surface of the tibial tray and the support member, the chamfer loading zone providing a variable thickness transition area between the bottom surface of the tibial tray and the support member to transfer loads between the tibial tray and the support member, characterized in that the chamfer loading zone is positioned between a radiused surface associated with the support member and the bottom surface of the tibial tray. a stem portion : and one or more keels extending from the stem portion; wherein the tibial implant further comprises a chamfer loading zone between the bottom surface of the tibial tray and the support member, the chamfer loading zone providing a variable thickness transition area between the bottom surface of the tibial tray and the support member to transfer loads between the tibial tray and the support member, characterized in that the chamfer loading zone is positioned between a radiused surface associated with the support member and the bottom surface of the tibial tray.
An electrolyte for a lithium secondary battery, comprising: a dinitrile compound, a trinitrile compound, and propyl propionate; wherein, 2 wt% ≤ X + Y ≤ 8 wt% and 0 .1 ≤ X/Y ≤ 6 , 0 .01 ≤ Y/Z ≤ 0 .3; based on the total weight of the electrolyte, X is a weight percentage of the dinitrile compound and Y is a weight percentage of the trinitrile compound, and Z is a weight percentage of the propyl propionate; wherein the dinitrile compound comprises a compound of Formula : CN-R 2 -(O-R 3 ) n -O-R 4 -CN ; where R 2 , R 3 and R 4 are each independently an alkylene group having 1-5 carbon atoms or an alkenylene group having 2-5 carbon atoms, and n is an integer from 0 to 5; the trinitrile compound comprises a compound of Formula or : CN-(CH 2 ) x -CH{(CH 2 ) y -CN}-(CH 2 ) z -CN ; or a combination thereof, where in Formula , x, y, and z represent an integer from 0 to 5, and x, y, and z are not 0 at the same time; and in Formula , R 5 represents hydrogen or an alkyl group having 1-5 carbon atoms, R 6 , R 7 and R 8 are each independently an alkylene group having 1-5 carbon atoms, and X 4 , X 5 and X 6 are each independently -R 9 -CN, in which R 9 represents an alkylene group having 1-5 carbon atoms. based on the total weight of the electrolyte, X is a weight percentage of the dinitrile compound and Y is a weight percentage of the trinitrile compound, and Z is a weight percentage of the propyl propionate; wherein the dinitrile compound comprises a compound of Formula : CN-R 2 -(O-R 3 ) n -O-R 4 -CN ; where R 2 , R 3 and R 4 are each independently an alkylene group having 1-5 carbon atoms or an alkenylene group having 2-5 carbon atoms, and n is an integer from 0 to 5; the trinitrile compound comprises a compound of Formula or : CN-(CH 2 ) x -CH{(CH 2 ) y -CN}-(CH 2 ) z -CN ; or a combination thereof, where in Formula , x, y, and z represent an integer from 0 to 5, and x, y, and z are not 0 at the same time; and in Formula , R 5 represents hydrogen or an alkyl group having 1-5 carbon atoms, R 6 , R 7 and R 8 are each independently an alkylene group having 1-5 carbon atoms, and X 4 , X 5 and X 6 are each independently -R 9 -CN, in which R 9 represents an alkylene group having 1-5 carbon atoms.