mhurhangee/ep-ind-claims huggingface dataset:
Use of an ascorbic acid derivative selected from the group consisting of ascorbyl phosphates, ascorbyl sulfates and ascorbyl glycosides, in an injectable hyaluronic acid composition further comprising - a hyaluronic acid gel and - a therapeutically relevant concentration of a local anesthetic selected from the group consisting of amide and ester type local anesthetics or a combination thereof, for preventing or reducing the effect of the local anesthetic on the viscosity and/or elastic modulus G' of the composition due to sterilization by heat, wherein the concentration of said ascorbic acid derivative in the composition is in the range of 0.01 to 5 mg/ml. - a hyaluronic acid gel and - a therapeutically relevant concentration of a local anesthetic selected from the group consisting of amide and ester type local anesthetics or a combination thereof,
Lapping cutter for a spot welding electrode, the body of which comprises at least one face having a concavity in the form of a bowl substantially complementary to that of the tip of the electrode that it is wished to lap; a radial slot (20, 21) emerging in said concavity and receiving a cutting blade (22, 23) with a substantially complementary form, the edge of which extends at a distance from the wall of the concavity, and means for favouring lapping of the flank of the electrode, characterised in that said concavity forms a shoulder above a slope of the blade, the height (H5-H7) of said shoulder decreasing as the slope rises, said slope of the blade forms an undercut (C6, CD7) that varies so that the cut is more aggressive on the flank than at the tip of the electrode.
A system for bleeding air from a core flow path of a gas turbine engine, comprising: a bleed valve having a bleed valve inlet configured to receive a bleed air from a first access point to the core flow path and a bleed valve outlet; an air motor having a first air motor inlet configured to receive the bleed air from the bleed valve outlet and a first air motor outlet configured to exhaust the bleed air, the air motor configured to pump the bleed air from the core flow path of the gas turbine engine, the system further comprising a pressurized air source, wherein the air motor further comprises a second air motor inlet configured to receive a pressurized air from said pressurized air source and a second air motor outlet configured to exhaust the pressurized air and wherein the first access point to the core flow path is positioned proximate a compressor section (24; 230) of the gas turbine engine, and characterised in that the pressurized air source comprises an external pneumatic source that includes at least one of an auxiliary power unit and a ground power unit. a bleed valve having a bleed valve inlet configured to receive a bleed air from a first access point to the core flow path and a bleed valve outlet; an air motor having a first air motor inlet configured to receive the bleed air from the bleed valve outlet and a first air motor outlet configured to exhaust the bleed air, the air motor configured to pump the bleed air from the core flow path of the gas turbine engine, the system further comprising a pressurized air source, wherein the air motor further comprises a second air motor inlet configured to receive a pressurized air from said pressurized air source and a second air motor outlet configured to exhaust the pressurized air and wherein the first access point to the core flow path is positioned proximate a compressor section (24; 230) of the gas turbine engine, and characterised in that the pressurized air source comprises an external pneumatic source that includes at least one of an auxiliary power unit and a ground power unit.
An optics cup (122, 188, 722) for holding a biological sample for use in an optical analysis comprising: a rectangular-shaped container (123, 723) for containing the biological sample, said container (123, 723) including a pair of side walls (160, 162, 198, 199, 760, 762), a first end wall (166, 201, 766), a second end wall (164, 200, 764), and a floor (178, 210, 768), said container (123, 723) having a rectangular opening (158, 194, 758) for receiving the biological sample and a lower tapered area (124, 212, 724) extending from the first end wall (166, 201, 766) in an inwardly and downwardly direction relative to the rectangular opening (158,194, 758), characterised in that the tapered area (124, 212, 724) is angled at an angle A5 of between 43.5° and 44.5°, preferably of 43.5°, relative to a vertical plane extending through the optics cup (122, 188, 722), and said vertical plane extending upwardly from the floor (178, 210, 768), and in that the lower tapered area (124, 212, 724) cooperates with the second end wall (164, 200, 764) to reflect an incoming illumination beam through the sample and out of the container along a path that is parallel to the incoming illumination beam without illuminating the floor (178, 210, 768). a rectangular-shaped container (123, 723) for containing the biological sample, said container (123, 723) including a pair of side walls (160, 162, 198, 199, 760, 762), a first end wall (166, 201, 766), a second end wall (164, 200, 764), and a floor (178, 210, 768), said container (123, 723) having a rectangular opening (158, 194, 758) for receiving the biological sample and a lower tapered area (124, 212, 724) extending from the first end wall (166, 201, 766) in an inwardly and downwardly direction relative to the rectangular opening (158,194, 758), characterised in that the tapered area (124, 212, 724) is angled at an angle A5 of between 43.5° and 44.5°, preferably of 43.5°, relative to a vertical plane extending through the optics cup (122, 188, 722), and said vertical plane extending upwardly from the floor (178, 210, 768), and in that the lower tapered area (124, 212, 724) cooperates with the second end wall (164, 200, 764) to reflect an incoming illumination beam through the sample and out of the container along a path that is parallel to the incoming illumination beam without illuminating the floor (178, 210, 768).
A non-gelled branched vinyl polymer carrying dendrons, wherein the vinyl polymer is made from a monofunctional vinyl monomer and is branched by virtue of a difunctional vinyl monomer.
Clearcoat coating composition comprising at least one polyester having an OH number of 100 - 220 mg KOH/g, comprising 10 to 20 mol% of at least one acyclic, aliphatic, branched polyol having two hydroxyl groups, 5 to 15 mol% of at least one acyclic, aliphatic, branched polyol having three hydroxyl groups, 10 to 20 mol% of at least one acyclic, aliphatic, branched polyol having four hydroxyl groups, 25 to 40 mol% of at least one cycloaliphatic 1,2-dicarboxylic acid and/or the anhydride of this dicarboxylic acid, and 20 to 35 mol% of isononanoic acid, the stated molar fractions being based in each case on the total molar fraction of the compounds to and this total molar fraction accounts for at least 70 mol% of the compounds present in the polyester; at least one butanol-etherified melamine-formaldehyde resin having a crosslinking onset temperature between 65°C - 100°C lower than the crosslinking onset temperature of hexamethoxymethylmelamine; at least one butanol-etherified melamine-formaldehyde resin having a crosslinking onset temperature between 30°C - 60°C lower than the crosslinking onset temperature of hexamethoxymethylmelamine; at least one organic urea compound as rheological assistant; at least one acid catalyst. at least one polyester having an OH number of 100 - 220 mg KOH/g, comprising 10 to 20 mol% of at least one acyclic, aliphatic, branched polyol having two hydroxyl groups, 5 to 15 mol% of at least one acyclic, aliphatic, branched polyol having three hydroxyl groups, 10 to 20 mol% of at least one acyclic, aliphatic, branched polyol having four hydroxyl groups, 25 to 40 mol% of at least one cycloaliphatic 1,2-dicarboxylic acid and/or the anhydride of this dicarboxylic acid, and 20 to 35 mol% of isononanoic acid, the stated molar fractions being based in each case on the total molar fraction of the compounds to and this total molar fraction accounts for at least 70 mol% of the compounds present in the polyester; 10 to 20 mol% of at least one acyclic, aliphatic, branched polyol having two hydroxyl groups, 5 to 15 mol% of at least one acyclic, aliphatic, branched polyol having three hydroxyl groups, 10 to 20 mol% of at least one acyclic, aliphatic, branched polyol having four hydroxyl groups, 25 to 40 mol% of at least one cycloaliphatic 1,2-dicarboxylic acid and/or the anhydride of this dicarboxylic acid, and 20 to 35 mol% of isononanoic acid, at least one butanol-etherified melamine-formaldehyde resin having a crosslinking onset temperature between 65°C - 100°C lower than the crosslinking onset temperature of hexamethoxymethylmelamine; at least one butanol-etherified melamine-formaldehyde resin having a crosslinking onset temperature between 30°C - 60°C lower than the crosslinking onset temperature of hexamethoxymethylmelamine; at least one organic urea compound as rheological assistant; at least one acid catalyst.
An ultrasonic probe module comprising: a first unit ultrasonic probe which includes a first rear block part, a first flexible substrate part which is stacked on an upper surface of the first rear block part and in which a first wiring pattern is formed, and a first piezoelectric wafer which is stacked on one side of an upper surface of the first flexible substrate part and is in electrical connection with the first flexible substrate part; and a second unit ultrasonic probe which includes a second rear block part which is stacked on the upper surface of the first flexible substrate part, a second flexible substrate part which is stacked on an upper surface of the second rear block part, and a second piezoelectric wafer which is stacked on an upper surface of the second flexible substrate part and is in electrical connection with the second flexible substrate part. a first unit ultrasonic probe which includes a first rear block part, a first flexible substrate part which is stacked on an upper surface of the first rear block part and in which a first wiring pattern is formed, and a first piezoelectric wafer which is stacked on one side of an upper surface of the first flexible substrate part and is in electrical connection with the first flexible substrate part; and a second unit ultrasonic probe which includes a second rear block part which is stacked on the upper surface of the first flexible substrate part, a second flexible substrate part which is stacked on an upper surface of the second rear block part, and a second piezoelectric wafer which is stacked on an upper surface of the second flexible substrate part and is in electrical connection with the second flexible substrate part.
Vehicle anti theft system, comprising: - an immobilizing transponder integrated in the vehicle, - an electronic label intended to communicate with the transponder, and - connection means which are able to establish or interrupt the communication between the transponder and the electronic label in response to orders coming from a control unit, characterized in that the connection means include: - a first antenna close to the transponder, - a second antenna close to the electronic label, and - an electrical connection equipped with a switch and connecting the two antennae (4, 5), the switch being controlled by the control unit. - an immobilizing transponder integrated in the vehicle, - an electronic label intended to communicate with the transponder, and - connection means which are able to establish or interrupt the communication between the transponder and the electronic label in response to orders coming from a control unit, - a first antenna close to the transponder, - a second antenna close to the electronic label, and - an electrical connection equipped with a switch and connecting the two antennae (4, 5), the switch being controlled by the control unit.
A drill bit, comprising: a pad configured to extend and retract from a surface of the drill bit; and a force application device (300, 600) configured to extend the pad (240a,b) from the surface of the drill bit; characterised in the force application device including a drive device that includes a lever action device (350, 660) configured to extend and retract the pad (240a, b) from the drill bit surface to control the depth of cut of cutters on the drill bit surface and thereby control axial aggressiveness of the drill bit. a pad configured to extend and retract from a surface of the drill bit; and a force application device (300, 600) configured to extend the pad (240a,b) from the surface of the drill bit; characterised in the force application device including a drive device that includes a lever action device (350, 660) configured to extend and retract the pad (240a, b) from the drill bit surface to control the depth of cut of cutters on the drill bit surface and thereby control axial aggressiveness of the drill bit.
A communication system, comprising: a first device (100, 100A-100F) connected to a first end of a control line, the first device comprising a signal recognizer (104, 104A, 104B) and a signal modifier (105, 105A-105C) both connected to the first end of the control line, and a path to ground connected to the first end of the control line, the path to ground comprising a first transistor and a first resistor (R1A) with a first resistance; and a second device (120, 120A, 120B, 120D-120G) connected to a second end of the control line, the second device comprises a signal generator and a receiver both connected to the second end of the control line, the signal generator being connected to the second end of the control line via a second resistor with a second resistance, the signal generator being configured to generate a signal at the second end of the control line, the signal represents a message from the second device, the signal recognizer being configured to recognize the message from the second device from the signal, and the first transistor is switchable between a conductive state and a non-conductive state responsive to the signal recognizer to provide a modification of the signal, wherein, when the first transistor is in the conductive state, a voltage of the signal is divided between the first resistor and the second resistor, the modification of the signal represents a message from the first device, and the receiver of the second device being configured to recognize the message from the first device from the modification of the signal. a first device (100, 100A-100F) connected to a first end of a control line, the first device comprising a signal recognizer (104, 104A, 104B) and a signal modifier (105, 105A-105C) both connected to the first end of the control line, and a path to ground connected to the first end of the control line, the path to ground comprising a first transistor and a first resistor (R1A) with a first resistance; and a second device (120, 120A, 120B, 120D-120G) connected to a second end of the control line, the second device comprises a signal generator and a receiver both connected to the second end of the control line, the signal generator being connected to the second end of the control line via a second resistor with a second resistance, the signal generator being configured to generate a signal at the second end of the control line, the signal represents a message from the second device, the signal recognizer being configured to recognize the message from the second device from the signal, and the first transistor is switchable between a conductive state and a non-conductive state responsive to the signal recognizer to provide a modification of the signal, wherein, when the first transistor is in the conductive state, a voltage of the signal is divided between the first resistor and the second resistor, the modification of the signal represents a message from the first device, and the receiver of the second device being configured to recognize the message from the first device from the modification of the signal.
A method for wireless connection, characterized in that the method comprises: sending, by a main Transmission Point, TP, a connection indication to User Equipment, UE, the connection indication being used to indicate the UE to establish a connection with at least one sub TP on the premise of keeping a current connection with the main TP; the method further comprising: acquiring, by the main TP, related information of the at least one sub TP; acquiring, by the main TP, basic information of the at least one sub TP through the UE, and sending the related information of the at least one sub TP to the UE, wherein the related information is sent to the UE together with the connection indication. sending, by a main Transmission Point, TP, a connection indication to User Equipment, UE, the connection indication being used to indicate the UE to establish a connection with at least one sub TP on the premise of keeping a current connection with the main TP; the method further comprising: acquiring, by the main TP, related information of the at least one sub TP; acquiring, by the main TP, basic information of the at least one sub TP through the UE, and sending the related information of the at least one sub TP to the UE, wherein the related information is sent to the UE together with the connection indication.
A heat exchanger (10, 20, 30) for the heat exchange between a first fluid on the one hand, in particular an exhaust gas and/or a charge air, and a second fluid on the other hand, in particular a coolant, with a heat exchanger block, having: - a housing with at least three flow ports (I, II, III) for the second fluid to a housing interior through which the second fluid can flow, - a heat exchanger core which is arranged for the separated and heat-exchanging guidance of the first and the second fluid (1, 2) in the housing interior, with a number of flow channels through which the first fluid can flow, wherein - the at least three flow ports (I, II, III) are arranged such that, in operation - a flow of the second fluid in the housing interior has a main flow running largely parallel to a flow of the first fluid on the one hand and a minor flow running largely transversely to the flow of the first fluid in a section on the other hand, and characterised in that the main flow runs in a direction opposite to the flow of the first fluid and the first flow port on the underside of the housing on the guidance outlet side of the first fluid, and wherein the second coolant port is arranged as an inlet for the minor flow on the underside of the housing and wherein the third flow port is arranged as an outlet for the main flow and for the minor flow on the upper side of the housing. - a housing with at least three flow ports (I, II, III) for the second fluid to a housing interior through which the second fluid can flow, - a heat exchanger core which is arranged for the separated and heat-exchanging guidance of the first and the second fluid (1, 2) in the housing interior, with a number of flow channels through which the first fluid can flow, wherein - the at least three flow ports (I, II, III) are arranged such that, in operation - a flow of the second fluid in the housing interior has a main flow running largely parallel to a flow of the first fluid on the one hand and a minor flow running largely transversely to the flow of the first fluid in a section on the other hand, and
An image processing device configured to receive a first print data, and to generate a second print data indicating an output format of a printout, comprising: a controller configured to select a template including a layout information being indicative of a position of an object in the printout from a plurality of templates based on an information contained in the first print data, the plurality of templates being prepared for a same type of the printout, and to generate the second print data according to the selected template and the first print data; wherein: the information contained in the first print data is a print object data indicating the object in the printout, and the controller generates the second print data according to the selected template and the print object data contained in the first print data. the information contained in the first print data is a print object data indicating the object in the printout, and the controller generates the second print data according to the selected template and the print object data contained in the first print data.
A marine electromagnetic survey source comprising: a power cable configured to couple to a high voltage power supply at one axial end; a head unit, the power cable being configured to couple to the head unit at the other axial end, wherein; the head unit comprises equipment configured to output a lower voltage at higher current than the high voltage power supply, wherein at least a portion of the head unit's exterior is electrically conductive and coupled to one output terminal of the equipment; and an electromagnetic antenna cable coupled to the head unit and configured to receive the output of another terminal of the equipment, wherein the antenna cable has an electrode thereon. a power cable configured to couple to a high voltage power supply at one axial end; a head unit, the power cable being configured to couple to the head unit at the other axial end, wherein; the head unit comprises equipment configured to output a lower voltage at higher current than the high voltage power supply, wherein at least a portion of the head unit's exterior is electrically conductive and coupled to one output terminal of the equipment; and an electromagnetic antenna cable coupled to the head unit and configured to receive the output of another terminal of the equipment, wherein the antenna cable has an electrode thereon.
Method for decorating an element (1, 11, 21, 31) comprising the following steps: a) taking the element (1, 11, 21, 31), said element having a top surface and a bottom surface, and said element comprising anchoring means for improving the securing of the decoration on the top surface of said element, the anchoring means including at least one part (8, 8', 8") mounted in a cavity (6, 6', 6") in said element located at the place to be decorated, said cavity having a non-uniform section, the section of said at least one cavity being smaller on the top face (22, 23) of said element (1, 11, 21, 31) than on the bottom face (23, 33) thereof; b) making a mask of the desired thickness of the decorations, and having at least one opening; c) placing said at least one opening of the mask against the place to be decorated so as to form at least one mould (4', 6, 6', 6", 100); d) filling said at least one mould by injection with a metallic material brought to a temperature at least higher than its glass-transition temperature Tg and then cooled down so as to confer on this metal an amorphous structure to form the element (1, 11, 21, 31); e) removing the mask. a) taking the element (1, 11, 21, 31), said element having a top surface and a bottom surface, and said element comprising anchoring means for improving the securing of the decoration on the top surface of said element, the anchoring means including at least one part (8, 8', 8") mounted in a cavity (6, 6', 6") in said element located at the place to be decorated, said cavity having a non-uniform section, the section of said at least one cavity being smaller on the top face (22, 23) of said element (1, 11, 21, 31) than on the bottom face (23, 33) thereof; b) making a mask of the desired thickness of the decorations, and having at least one opening; c) placing said at least one opening of the mask against the place to be decorated so as to form at least one mould (4', 6, 6', 6", 100); d) filling said at least one mould by injection with a metallic material brought to a temperature at least higher than its glass-transition temperature Tg and then cooled down so as to confer on this metal an amorphous structure to form the element (1, 11, 21, 31); e) removing the mask.