mhurhangee/ep-ind-claims huggingface dataset:
Method for supercritical removal of an inorganic compound, comprising the steps of: - bringing a fluid comprising more than one inorganic fractions at supercritical conditions, wherein the fluid comprises different salt fractions as inorganic fraction; - separating different salt fractions in the fluid through the decrease in solubility of salt fractions at supercritical conditions, wherein the separation step is divided in different sub-steps to separate different fractions at different supercritical conditions in separate sub-steps, comprising: - operating a first unit at a temperature of 650 K and a pressure of 25 MPa; - sending one output flow of the first unit to a second unit performing a second step at conditions of 700 K and 25 MPa having output flows of water and a salt fraction of NaCl; - sending another output flow of the first unit to another unit performing a step at conditions of 640 K and 25 MPa and having two main output flows comprising mainly Na 2 SO 4 and Na 2 CO 3 respectively; - cooling and/or depressurizing the fluid; and - removing the separated fractions. - bringing a fluid comprising more than one inorganic fractions at supercritical conditions, wherein the fluid comprises different salt fractions as inorganic fraction; - separating different salt fractions in the fluid through the decrease in solubility of salt fractions at supercritical conditions, wherein the separation step is divided in different sub-steps to separate different fractions at different supercritical conditions in separate sub-steps, comprising: - operating a first unit at a temperature of 650 K and a pressure of 25 MPa; - sending one output flow of the first unit to a second unit performing a second step at conditions of 700 K and 25 MPa having output flows of water and a salt fraction of NaCl; - sending another output flow of the first unit to another unit performing a step at conditions of 640 K and 25 MPa and having two main output flows comprising mainly Na 2 SO 4 and Na 2 CO 3 respectively; - operating a first unit at a temperature of 650 K and a pressure of 25 MPa; - sending one output flow of the first unit to a second unit performing a second step at conditions of 700 K and 25 MPa having output flows of water and a salt fraction of NaCl; - sending another output flow of the first unit to another unit performing a step at conditions of 640 K and 25 MPa and having two main output flows comprising mainly Na 2 SO 4 and Na 2 CO 3 respectively; - cooling and/or depressurizing the fluid; and - removing the separated fractions.
A connector for a safety switching profile comprising a first contact element for a first switching profile section of the safety switching profile and a second contact element for a second switching profile section of the safety switching profile, and an insertion lug, wherein the two contact elements are accommodated in the insertion lug, and wherein the first contact element is a first carrier with a first claw and the second contact element is a second carrier with a second claw, characterized in that the carriers (8, 10) are designed as a C-profile or U-profile (17, 20) in the form of a contact clip.
A composite material blade for a fan of a turbine engine, the blade comprises a first portion that extends to the root of the blade and that is made of a first material comprising first fiber reinforcement densified by a first matrix, the blade also comprising a second portion that extends to the tip of the blade and that is made of a second material that is different from the first material and that comprises second fiber reinforcement densified by a second matrix, characterized in that the second material possesses abrasion resistance that is less than that of the first material.
A swing arm for a saddle-ride type vehicle including: a pivot part adapted to be swingably supported on a vehicle body frame; paired left and right arm parts (36L, 36R) each extending rearward from the pivot part and having a rear end portion on which a rear wheel can be pivotally supported; and a cross member part laid between middle portions, in a front-rear direction, of the arm parts (36L, 36R), wherein paired left and right plate-shaped reinforcement patches (40L, 40R) are provided respectively between both end portions of the cross member part and the arm parts (36L, 36R), the reinforcement patches (40L, 40R) being joined to rear surfaces of the respective end portions of the cross member part and to inner side surfaces of portions of the respective arm parts (36L, 36R) behind the cross member part, and the reinforcement patches (40L, 40R) form spaces (41 L, 41 R) together with the both end portions of the cross member part and the arm parts (36L, 36R), respectively, each of the spaces (41 L, 41 R) having an open top and bottom; characterized in that cover members (43, 44) covering at least part of the reinforcement patches (40L, 40R) and the spaces (41 L, 41R) from above are attached to the arm parts (36L, 36R), respectively.
A method of preparing ester-substituted diaryl carbonates, said method having a contact time, said method comprising contacting an ester-substituted phenol with phosgene and a catalyst and an aqueous phase in a mixture free of organic solvent, wherein the aqueous phase is maintained at a pH of at least 8.3 throughout the contact time, said phosgene being used in an amount corresponding to between 0.10 and 1.20 moles of phosgene per mote of ester-substituted phenol.
A printer comprising a functional unit, the functional unit including: a frame wherein a print medium container and ribs are formed, the print medium container configured to contain a print medium; an opening and closing cover pivotally supported by the frame so as to open and close the print medium container; a feeding roller rotatably supported by the opening and closing cover at one end side thereof, the feeding roller configured to feed the print medium; a print head disposed to face the feeding roller and configured to print on the print medium when the opening and closing cover is closed, a control board attached to the frame, the control board being configured to control operation of the feeding roller and the print head; and an electric power supply container configured to contain an electric power supply for supplying an electric power to a driver of the feeding roller, the print head and the control board, the electric power supply container being built in the frame; the printer further comprising, a first housing configured to contain the functional unit; and a second housing fixed to the first housing through the ribs, the second housing configured to open or close the opening and closing cover, the second housing protecting the functional unit together with the first housing. a frame wherein a print medium container and ribs are formed, the print medium container configured to contain a print medium; an opening and closing cover pivotally supported by the frame so as to open and close the print medium container; a feeding roller rotatably supported by the opening and closing cover at one end side thereof, the feeding roller configured to feed the print medium; a print head disposed to face the feeding roller and configured to print on the print medium when the opening and closing cover is closed, a control board attached to the frame, the control board being configured to control operation of the feeding roller and the print head; and an electric power supply container configured to contain an electric power supply for supplying an electric power to a driver of the feeding roller, the print head and the control board, the electric power supply container being built in the frame; the printer further comprising, a first housing configured to contain the functional unit; and a second housing fixed to the first housing through the ribs, the second housing configured to open or close the opening and closing cover, the second housing protecting the functional unit together with the first housing.
A method of producing a stimulation pattern for activating electrodes in a multi-channel electrode array of an auditory prosthesis, in which the electrodes of the multi-channel electrode array are spatially divided, using a processor, the method comprising: determining at least one pulse suitable for stimulating a single electrode of the electrode array; converting each of the pulses into a plurality of pulses suitable for stimulating a plurality of electrodes in the electrode array, characterised in that the temporal and/or spatial center of mass for the plurality of pulses is substantially equivalent to that of the determined pulse. determining at least one pulse suitable for stimulating a single electrode of the electrode array; converting each of the pulses into a plurality of pulses suitable for stimulating a plurality of electrodes in the electrode array, characterised in that the temporal and/or spatial center of mass for the plurality of pulses is substantially equivalent to that of the determined pulse.
An aqueous composition having a pH value at 55 °C in the range from 5 to 9, containing at least two different amino organophosphonic acid derivatives of formula wherein residues R independently of each other are CH 2 -PO(OR") 2, residues R' independently of each other are alkylene residues with 2 to 4 carbon atoms, residues R" independently of each other are H, Na, K, Li or NH 4; and n is an integer from 0 to 4; and wherein the at least two different amino organophosphonic acid derivatives differ in the value of n; and wherein the amount of all amino organophosphonic acid derivatives of formula contained in the composition ranges from 1.0 to 8.0 wt.-%, based on the total weight of the composition and being calculated as free acid. residues R independently of each other are CH 2 -PO(OR") 2, residues R' independently of each other are alkylene residues with 2 to 4 carbon atoms, residues R" independently of each other are H, Na, K, Li or NH 4; and n is an integer from 0 to 4; and wherein the at least two different amino organophosphonic acid derivatives differ in the value of n; and wherein the amount of all amino organophosphonic acid derivatives of formula contained in the composition ranges from 1.0 to 8.0 wt.-%, based on the total weight of the composition and being calculated as free acid.
A method performed by a wireless communication node adapted to transmit a wake-up signal for waking up one or more wireless communication receivers, the method comprising: determining a first set of data to be transmitted by the wireless communication node for concurrent transmission with the wake-up signal; determining a first interference indicator value indicative of a level of interference caused by the first set of data to the wake-up signal due to concurrent transmission, the first interference indicator value being determined by calculating an error vector magnitude of concurrent transmission of the wake-up signal with the first data set; deciding if the wake-up signal is to be concurrently transmitted with the first set of data based on the first interference indicator value; and transmitting (1240, 1260) the wake-up signal in accordance with the decision. determining a first set of data to be transmitted by the wireless communication node for concurrent transmission with the wake-up signal; determining a first interference indicator value indicative of a level of interference caused by the first set of data to the wake-up signal due to concurrent transmission, the first interference indicator value being determined by calculating an error vector magnitude of concurrent transmission of the wake-up signal with the first data set; deciding if the wake-up signal is to be concurrently transmitted with the first set of data based on the first interference indicator value; and transmitting (1240, 1260) the wake-up signal in accordance with the decision.
Method for manufacturing a composite material part, comprising the steps of: - disposing long reinforcing fibres and resin in a preforming tool so as to form a preform (32; 320) of the part, the reinforcing fibres and the resin having a total mass equal to that of the part, the long fibres being disposed to extend at least partly in at least one direction of mechanical load on the part to be manufactured; - thermoforming this preform (32; 320) at a predetermined pressure for a predetermined time in a forming tool comprising a die and a punch, taking care that no fibre projects from the die during insertion of the punch to prevent it being sheared by the punch, the die and the punch co-operating so that the resin does not escape from the die, so as to contain the fibres and the resin in the tool to obtain the part; - carrying out a phase of cooling the part while keeping it under pressure. - disposing long reinforcing fibres and resin in a preforming tool so as to form a preform (32; 320) of the part, the reinforcing fibres and the resin having a total mass equal to that of the part, the long fibres being disposed to extend at least partly in at least one direction of mechanical load on the part to be manufactured; - thermoforming this preform (32; 320) at a predetermined pressure for a predetermined time in a forming tool comprising a die and a punch, taking care that no fibre projects from the die during insertion of the punch to prevent it being sheared by the punch, the die and the punch co-operating so that the resin does not escape from the die, so as to contain the fibres and the resin in the tool to obtain the part; - carrying out a phase of cooling the part while keeping it under pressure.
A method to be performed by an access node, comprising: providing a first uplink grant comprising a first format index indicating a first transmission format for a first user equipment within a sub-frame, wherein the first transmission format comprises transmission of a demodulation reference signal in a transmission time interval without data symbols in the transmission time interval; and providing a second uplink grant comprising a second format index indicating a second transmission format for the first user equipment within the sub-frame, wherein the second transmission format comprises transmission of a plurality of data symbols in another transmission time interval without transmission of a demodulation reference signal in the another transmission time interval; and providing a third uplink grant to schedule a second user equipment to transmit within the sub-frame a plurality of data symbols and a demodulation reference signal.
An antibody or part thereof capable of specifically binding to the "a" determinant of the S polypeptide of Hepatitis B surface antigen (HBsAg) and having Hepatitis B Virus neutralizing activity, wherein said antibody or fragment thereof comprises a heavy chain variable domain comprising the amino acid sequence SEQ ID NO: 2 and a light chain variable domain comprising the amino acid sequence SEQ ID NO: 4; and wherein the antibody or part thereof comprises more than 43,000 IU/mg relative to the International Reference Preparation for anti-HBs immunoglobulin.
A centrifugal separation container for separating a material from tissue and body fluids using a centrifugal force, comprising: a first container; a second container; a first piston positioned in the inside of the first container and configured to be movable up and down in the inside of the first container; an elastic body positioned below the first piston in the inside of the first container and configured to elastically bias the first piston upward; a first connecting duct having one end connected to the first container and the other end connected to the second container; and a first control valve operating by a centrifugal force and configured to open and close the first connecting duct, wherein the first control valve comprises a first valve configured as an initial close valve that is closed before a centrifugal force is applied and that is opened after a centrifugal force is applied. a first container; a second container; a first piston positioned in the inside of the first container and configured to be movable up and down in the inside of the first container; an elastic body positioned below the first piston in the inside of the first container and configured to elastically bias the first piston upward; a first connecting duct having one end connected to the first container and the other end connected to the second container; and a first control valve operating by a centrifugal force and configured to open and close the first connecting duct, wherein the first control valve comprises a first valve configured as an initial close valve that is closed before a centrifugal force is applied and that is opened after a centrifugal force is applied.
A method to analyze the activity of an ion channel comprising the following steps: (i) providing in a hydrophobic medium a first droplet D 1 of an aqueous solution AS 1 comprising a concentration c 1 of an ion I with c 1 ≥ 0, wherein the droplet D 1 is surrounded by a monolayer of amphiphilic molecules, (ii) providing in the said hydrophobic medium a second droplet D 2 of an aqueous solution AS 2 comprising a concentration c 2 of the ion I with c 2 ≥ 0 and c 2 ≠ c 1, wherein the droplet D 2 is surrounded by a monolayer of amphiphilic molecules further comprising the ion channels to be analyzed, (iii) bringing the first droplet D 1 and the second droplet D 2 into contact so as to form a bilayer of amphiphilic molecules in the contact area, wherein the bilayer of amphiphilic molecules further comprises ion channels to be analyzed, and measuring the radius of the two droplets when they are brought into contact referred to as initial state, and (iv) maintaining the first droplet D 1 and the second droplet D 2 into contact until equilibrium is reached and measuring the radius of the two contacted droplets or determining the number of resulting droplet(s) at the equilibrium referred to as equilibrium state, wherein the ion channel is inactive when the difference of the radius of at least one droplet between its initial state and its equilibrium state is at least 10% or when only one droplet is obtained at the equilibrium state. (i) providing in a hydrophobic medium a first droplet D 1 of an aqueous solution AS 1 comprising a concentration c 1 of an ion I with c 1 ≥ 0, wherein the droplet D 1 is surrounded by a monolayer of amphiphilic molecules, (ii) providing in the said hydrophobic medium a second droplet D 2 of an aqueous solution AS 2 comprising a concentration c 2 of the ion I with c 2 ≥ 0 and c 2 ≠ c 1, wherein the droplet D 2 is surrounded by a monolayer of amphiphilic molecules further comprising the ion channels to be analyzed, (iii) bringing the first droplet D 1 and the second droplet D 2 into contact so as to form a bilayer of amphiphilic molecules in the contact area, wherein the bilayer of amphiphilic molecules further comprises ion channels to be analyzed, and measuring the radius of the two droplets when they are brought into contact referred to as initial state, and (iv) maintaining the first droplet D 1 and the second droplet D 2 into contact until equilibrium is reached and measuring the radius of the two contacted droplets or determining the number of resulting droplet(s) at the equilibrium referred to as equilibrium state,
A cardiotomy and venous blood reservoir comprising: a housing assembly forming a main chamber; a cardiotomy inlet port; a cardiotomy sub-assembly forming an inlet side open to the cardiotomy inlet port, an outlet side open to the main chamber, and a cardiotomy chamber having a flow surface between the inlet side and the outlet side, the cardiotomy sub-assembly including: a cardiotomy filter fluidly connected to the flow surface, a cardiotomy defoamer spaced from the flow surface; a venous inlet port; and a venous sub-assembly including: a downtube forming a lumen fluidly connected to the venous inlet port and a downstream end opposite the venous inlet port, a bowl forming a floor surface axially aligned with the downstream end for receiving venous liquid delivered from the downstream end, a venous filter circumferentially surrounding the bowl, wherein the bowl and the venous filter combine to define a venous chamber, a venous defoamer at least partially disposed within the venous chamber and longitudinally spaced above the floor surface, wherein the venous defoamer is sized for assembly about the downtube; wherein the cardiotomy filter is stacked above the venous filter. a housing assembly forming a main chamber; a cardiotomy inlet port; a cardiotomy sub-assembly forming an inlet side open to the cardiotomy inlet port, an outlet side open to the main chamber, and a cardiotomy chamber having a flow surface between the inlet side and the outlet side, the cardiotomy sub-assembly including: a cardiotomy filter fluidly connected to the flow surface, a cardiotomy defoamer spaced from the flow surface; a venous inlet port; and a venous sub-assembly including: a downtube forming a lumen fluidly connected to the venous inlet port and a downstream end opposite the venous inlet port, a bowl forming a floor surface axially aligned with the downstream end for receiving venous liquid delivered from the downstream end, a venous filter circumferentially surrounding the bowl, wherein the bowl and the venous filter combine to define a venous chamber, a venous defoamer at least partially disposed within the venous chamber and longitudinally spaced above the floor surface, wherein the venous defoamer is sized for assembly about the downtube; a downtube forming a lumen fluidly connected to the venous inlet port and a downstream end opposite the venous inlet port, a bowl forming a floor surface axially aligned with the downstream end for receiving venous liquid delivered from the downstream end, a venous filter circumferentially surrounding the bowl, wherein the bowl and the venous filter combine to define a venous chamber, a venous defoamer at least partially disposed within the venous chamber and longitudinally spaced above the floor surface, wherein the venous defoamer is sized for assembly about the downtube; wherein the cardiotomy filter is stacked above the venous filter.