mhurhangee/ep-ind-claims huggingface dataset:
An induction heating cooker comprising: an outer shell having an opening portion in an upper portion of the outer shell; a top plate configured to cover the opening portion and on which an object to be heated is placed; and a plurality of heating coil units provided under the top plate inside the outer shell and configured to heat the object to be heated; wherein a first ferrite is provided under each of the plurality of heating coil units, the heating coil units are placed closely to each other and include a heating coil unit placed at an end, and a heating coil unit adjacent to the heating coil unit placed at the end, a second ferrite is provided adjacently to the heating coil unit placed at the end, and the second ferrite is placed in an opposite side with respect to the heating coil unit placed at the end, from the heating coil unit adjacent to the heating coil unit placed at the end, and between the outer shell and the heating coil unit placed at the end, characterized by a shield box in which the plurality of heating coil units are placed, wherein in a corner portion of the shield box, a third ferrite is placed in such a way as to face a side wall of the corner portion, wherein the third ferrite has a shape which is substantially symmetrical with respect to a shape of a side wall of the shield box located at a position diagonal to the corner portion. an outer shell having an opening portion in an upper portion of the outer shell; a top plate configured to cover the opening portion and on which an object to be heated is placed; and a plurality of heating coil units provided under the top plate inside the outer shell and configured to heat the object to be heated; wherein a first ferrite is provided under each of the plurality of heating coil units, the heating coil units are placed closely to each other and include a heating coil unit placed at an end, and a heating coil unit adjacent to the heating coil unit placed at the end, a second ferrite is provided adjacently to the heating coil unit placed at the end, and the second ferrite is placed in an opposite side with respect to the heating coil unit placed at the end, from the heating coil unit adjacent to the heating coil unit placed at the end, and between the outer shell and the heating coil unit placed at the end, characterized by a shield box in which the plurality of heating coil units are placed, wherein in a corner portion of the shield box, a third ferrite is placed in such a way as to face a side wall of the corner portion, wherein the third ferrite has a shape which is substantially symmetrical with respect to a shape of a side wall of the shield box located at a position diagonal to the corner portion.
Electronic smoking device comprising a first atomizer, a first liquid reservoir that is connected to the first atomizer, and an air inhalation port arranged on a first surface of the electronic smoking device, wherein the electronic smoking device comprises a vapor outlet opening that is arranged on an second surface of the electronic smoking device, the second surface differing from the first surface, wherein the electronic smoking device comprises control electronics for controlling the operation of the atomizer (26, 52), wherein the control electronics comprise an activity signal input for receiving an activity signal representing an activity of the electronic smoking device, and an operation signal output for outputting an operation signal to the atomizer (26, 52) of the electronic smoking device, characterized in that the control electronics are adapted to terminate the operation signal with a predetermined delay with respect to an end of the activity signal.
Thermally comfortable seat composed of a foam upholstery, having Z-shaped transverse and longitudinal channels, and of a cover fabric, characterized in that - the channels of the foam upholstery are of the size Z1 (A = 30 mm, B = C = 10 mm, D = 12 mm) and Z4 (A = 30 mm, B = 12.5 mm, C = 7.5 mm, D = 12 mm), and the openings are of a diameter of 6 mm on the seat-face side (10, 12) and of 12 mm on the reverse side (11, 13), wherein A is the total width of the groove, B is the width of a groove, C is the width of the channel, and D is the depth of the channel, - and in that the cover fabric is composed of two layers, one being a designed cloth and one being a woven spacer fabric. - the channels of the foam upholstery are of the size Z1 (A = 30 mm, B = C = 10 mm, D = 12 mm) and Z4 (A = 30 mm, B = 12.5 mm, C = 7.5 mm, D = 12 mm), and the openings are of a diameter of 6 mm on the seat-face side (10, 12) and of 12 mm on the reverse side (11, 13), wherein A is the total width of the groove, B is the width of a groove, C is the width of the channel, and D is the depth of the channel, - and in that the cover fabric is composed of two layers, one being a designed cloth and one being a woven spacer fabric.
Use of a lubricant containing an ester compound or a mixture of at least 2 ester compounds of general structure (Ia) in which n' and n" are either 1 and 2 or 2 and 1, m' is 1 to 5, radical R 1 is selected from the group consisting of hydrogen, branched or unbranched C 1 to C 60 alkyl radicals, branched or unbranched C 2 to C 60 alkenyl radicals, C 7 to C 60 arylalkyl radicals, C 1 to C 60 heteroarylalkyl radicals and/or C 6 to C 60 aryl radicals, radical R 2 is selected from the group consisting of branched or unbranched C 1 to C 60 alkyl radicals, branched or unbranched C 2 to C 60 alkenyl radicals, C 7 to C 60 arylalkyl radicals and/or C 6 to C 60 heteroarylalkyl radicals and/or cyclically saturated and/or unsaturated C 5 to C 60 alkyl radicals, wherein these are unsubstituted or are substituted one or more times with at least one substituent selected from the group of OH, CH 2 OH, as lubricating oil or lubricating grease. n' and n" are either 1 and 2 or 2 and 1, m' is 1 to 5, radical R 1 is selected from the group consisting of hydrogen, branched or unbranched C 1 to C 60 alkyl radicals, branched or unbranched C 2 to C 60 alkenyl radicals, C 7 to C 60 arylalkyl radicals, C 1 to C 60 heteroarylalkyl radicals and/or C 6 to C 60 aryl radicals, radical R 2 is selected from the group consisting of branched or unbranched C 1 to C 60 alkyl radicals, branched or unbranched C 2 to C 60 alkenyl radicals, C 7 to C 60 arylalkyl radicals and/or C 6 to C 60 heteroarylalkyl radicals and/or cyclically saturated and/or unsaturated C 5 to C 60 alkyl radicals, wherein these are unsubstituted or are substituted one or more times with at least one substituent selected from the group of OH, CH 2 OH,
A fuel injection assembly comprising a fuel injector having an injection outlet, a mount in which the fuel injector is adapted to be supported, and a tip having an end from which fuel issuing from the outlet of the fuel injector is discharged, the tip being adapted for location in an injection port, the tip being of flexible construction to accommodate some misalignment between the mount and the injection port, characterised in that the tip comprises pliant material to provide said flexible construction.
A thin film transistor, comprising: a substrate; a source electrode and a drain electrode on the substrate; an active layer on the source electrode and the drain electrode; and an intermediate insulating layer, a portion of the intermediate insulating layer being arranged on the source electrode and the drain electrode and forming a raised profile away from the substrate, the intermediate insulating layer including a hollowed region that is corresponding to a region between the source electrode and the drain electrode; wherein the active layer extends from the source electrode towards the drain electrode along a non-linear path, the non-linear path of the active layer comprises a first portion and a second portion connecting the first portion, the second portion extending in a direction away from the substrate and along the raised profile of the intermediate insulating layer, and the active layer along the first portion of the non-linear path contacts the source electrode and drain electrode, and the active layer along the second portion of the non-linear path contacts the intermediate insulating layer, characterised by that: the hollowed region exposes the substrate, and the non-linear path of the active layer further comprises a third portion which is located in the hollowed region and is in contact with the substrate. a substrate; a source electrode and a drain electrode on the substrate; an active layer on the source electrode and the drain electrode; and an intermediate insulating layer, a portion of the intermediate insulating layer being arranged on the source electrode and the drain electrode and forming a raised profile away from the substrate, the intermediate insulating layer including a hollowed region that is corresponding to a region between the source electrode and the drain electrode; wherein the active layer extends from the source electrode towards the drain electrode along a non-linear path, the non-linear path of the active layer comprises a first portion and a second portion connecting the first portion, the second portion extending in a direction away from the substrate and along the raised profile of the intermediate insulating layer, and the active layer along the first portion of the non-linear path contacts the source electrode and drain electrode, and the active layer along the second portion of the non-linear path contacts the intermediate insulating layer, characterised by that: the hollowed region exposes the substrate, and the non-linear path of the active layer further comprises a third portion which is located in the hollowed region and is in contact with the substrate.
Process for manufacturing a sheet of paper or cardboard, according to which, before said sheet is formed, 100 to 800 g.t -1 of dry pulp of at least one N-vinylformamide polymer, partially hydrolyzed in the form of an inverse emulsion in the presence of an anti-gelling agent, and having a cationic regain of between 30 and 150%, is added to a fibrous suspension at one or more injection points, the inverse emulsion having a partially hydrolyzed N-vinylformamide polymer/anti-gelling agent weight ratio of between 1,000,000/5,000 and 1,000,000/50,000, the partially hydrolyzed N-vinylformamide polymer comprises N-vinylformamide functions of which 10 to 60 mol% are hydrolyzed, the partially hydrolyzed N-vinylformamide polymer having a Brookfield viscosity greater than 1.2 cps at a concentration of 0.1% by weight in a 1M aqueous solution of NaCl, at 23°C, with a UL modulus and at 60 rpm -1, the anti-gelling agent being selected from the group comprising alkali metal sulfites, alkaline-earth metal sulfites, alkali metal hydrogen sulfites, alkaline-earth metal hydrogen sulfites, alkali metal bisulfites, alkaline-earth metal bisulfites, hydroxylamine hydrochloridrate, hydroxylamine sulfate, alkali metal dithionite, alkaline-earth metal dithionite, alkali metal borohydride, alkaline-earth metal borohydride, alkali metal hydroxy methane sulfonate, alkaline-earth metal hydroxy methane sulfonate, and mixtures thereof. the cationic regain being the gain in cationicity between the theoretical and measured cationicity, the theoretical cationicity, in meq.g -1, being determined by colorimetric titration of a 5 g.L -1 solution of polymer in water after a high shear rate of 8,000 rpm -1 for 10 minutes, the measured cationicity, in meq.g -1, being determined by colorimetric titration of a 5 g.L -1 solution of polymer in water. the partially hydrolyzed N-vinylformamide polymer comprises N-vinylformamide functions of which 10 to 60 mol% are hydrolyzed, the partially hydrolyzed N-vinylformamide polymer having a Brookfield viscosity greater than 1.2 cps at a concentration of 0.1% by weight in a 1M aqueous solution of NaCl, at 23°C, with a UL modulus and at 60 rpm -1, the anti-gelling agent being selected from the group comprising alkali metal sulfites, alkaline-earth metal sulfites, alkali metal hydrogen sulfites, alkaline-earth metal hydrogen sulfites, alkali metal bisulfites, alkaline-earth metal bisulfites, hydroxylamine hydrochloridrate, hydroxylamine sulfate, alkali metal dithionite, alkaline-earth metal dithionite, alkali metal borohydride, alkaline-earth metal borohydride, alkali metal hydroxy methane sulfonate, alkaline-earth metal hydroxy methane sulfonate, and mixtures thereof. the cationic regain being the gain in cationicity between the theoretical and measured cationicity, the theoretical cationicity, in meq.g -1, being determined by colorimetric titration of a 5 g.L -1 solution of polymer in water after a high shear rate of 8,000 rpm -1 for 10 minutes, the measured cationicity, in meq.g -1, being determined by colorimetric titration of a 5 g.L -1 solution of polymer in water.
An adjustable guide vane ring of a turbomachine, having a plurality of guide vanes that form a guide vane row, and having an inner ring for stabilizing the guide vane row, wherein the guide vanes each have an adjusting pin, situated radially outwardly relative to a longitudinal axis of the ring, for cooperating with an adjusting device, and the inner ring is axially split and has a front ring segment and a rear ring segment in the direction of a primary flow, characterized by a brush seal, positioned on the inner ring, for sealing a gap between the inner ring and an opposite rotor portion.
A method of evaluating Initial Filter Criteria at a terminating Call Session Control Function in an IP Multimedia Subsystem network, the method comprising: receiving a Session Initiation Protocol message, the Session Initiation Protocol message comprising a Request-Uniform Resource Identifier; as a result of applying an Initial Filter Criterion to the message, sending the message to an Application Server and suspending evaluation of further Initial Filter Criteria; receiving the message returned from the Application Server; determining whether or not the Request-Uniform Resource Identifier has been changed by the Application Server; if the Request-Uniform Resource Identifier has been changed by the Application Server, then determining whether to resume evaluation of Initial Filter Criteria, and if the Request-Uniform Resource Identifier has not been changed by the Application Server, then resuming evaluation of Initial Filter Criteria. receiving a Session Initiation Protocol message, the Session Initiation Protocol message comprising a Request-Uniform Resource Identifier; as a result of applying an Initial Filter Criterion to the message, sending the message to an Application Server and suspending evaluation of further Initial Filter Criteria; receiving the message returned from the Application Server; determining whether or not the Request-Uniform Resource Identifier has been changed by the Application Server; if the Request-Uniform Resource Identifier has been changed by the Application Server, then determining whether to resume evaluation of Initial Filter Criteria, and if the Request-Uniform Resource Identifier has not been changed by the Application Server, then resuming evaluation of Initial Filter Criteria.
An assembly for converting the energy of a fluid in natural movement, comprising: - a propeller capable of being driven in rotation by the fluid, the propeller being connected to a drive shaft, - a pump connected to a receiving shaft for driving the pump, - a gearbox capable of converting a first rotation movement of the drive shaft into a second rotation movement of the receiving shaft, characterized in that the gearbox comprises a sun gear element, a carrier element, a ring gear element and at least one planet gear supported by the carrier element, the planet gear having a drive surface capable of coming into contact with a drive surface of the ring gear element on the one hand and a drive surface of the sun gear element on the other hand to transmit a rotation movement of a first drive shaft to a second receiving shaft each connected to one of the elements (2, 3, 4), the transmission from the first shaft to the second shaft being performed by friction between the drive surfaces (51, 41, 31) of the planet gear and of the ring gear element or of the sun gear element. - a propeller capable of being driven in rotation by the fluid, the propeller being connected to a drive shaft, - a pump connected to a receiving shaft for driving the pump, - a gearbox capable of converting a first rotation movement of the drive shaft into a second rotation movement of the receiving shaft,
An exhaust gas control apparatus characterized by comprising: an exhaust passage; a urea water tank configured to store urea water; a urea adding valve configured to add the urea water into exhaust gas flowing through the exhaust passage; a urea pump configured to send the urea water from the urea water tank to the urea adding valve; a pipe connecting the urea pump and the urea adding valve to each other; a selective reduction-type catalyst device configured to reduce nitrogen oxide in the exhaust gas by selective catalytic reduction in which ammonia generated from the urea water added by the urea adding valve is used as a reducing agent; and an electronic control unit configured to drive the urea pump as a filling control when a condition requiring an execution of urea water addition by the urea adding valve is satisfied such that the pipe is filled with the urea water, the electronic control unit being configured to execute the filling control and open the urea adding valve when an exhaust pressure of the exhaust passage is equal to or less than a specified value, and the electronic control unit being configured to stop the filling control and close the urea adding valve when the exhaust pressure of the exhaust passage exceeds the specified value during the execution of the filling control. an exhaust passage; a urea water tank configured to store urea water; a urea adding valve configured to add the urea water into exhaust gas flowing through the exhaust passage; a urea pump configured to send the urea water from the urea water tank to the urea adding valve; a pipe connecting the urea pump and the urea adding valve to each other; a selective reduction-type catalyst device configured to reduce nitrogen oxide in the exhaust gas by selective catalytic reduction in which ammonia generated from the urea water added by the urea adding valve is used as a reducing agent; and an electronic control unit configured to drive the urea pump as a filling control when a condition requiring an execution of urea water addition by the urea adding valve is satisfied such that the pipe is filled with the urea water, the electronic control unit being configured to execute the filling control and open the urea adding valve when an exhaust pressure of the exhaust passage is equal to or less than a specified value, and the electronic control unit being configured to stop the filling control and close the urea adding valve when the exhaust pressure of the exhaust passage exceeds the specified value during the execution of the filling control.
A temperature sensing circuit for measuring the resistance of a RTD device having a first terminal and a second terminal, comprising: a first current source; a second current source; and a switch circuit configured, in a first configuration, to connect the first terminal of the RTD device to the first current source and the second terminal of the RTD device to the second current source, and configured, in a second configuration, to connect the second terminal of the RTD device to the first current source and the first terminal of the RTD device to the second current source. a first current source; a second current source; and a switch circuit configured, in a first configuration, to connect the first terminal of the RTD device to the first current source and the second terminal of the RTD device to the second current source, and configured, in a second configuration, to connect the second terminal of the RTD device to the first current source and the first terminal of the RTD device to the second current source.
A Positive Airway Pressure device adapted to control mask leak, comprising: a flow generator to provide a continuous positive airway pressure; a patient interface to deliver the pressurized air to a patient; pressure and flow sensors (4p, 4f); and a controller configured to implement operation of the device including one or more leak control modes, wherein the one or more leak control modes includes reducing the flow generator pressure upon detection of mask leak to a sub-therapeutic pressure for a predetermined period of time to allow the patient interface to reseal against the patient's face and then ramping back up to therapeutic pressure; said controller being configured such that said one or more leak control modes includes sensing with the pressure and flow sensors a mask leak parameter which is a mask pressure, or a differential between a pressure at the flow generator and the mask, said controller also being configured to compare said mask leak parameter to a mask leak threshold to determine excessive mask leak, and said controller further being configured to determine whether pressure at the patient interface is below a desired value; the controller being configured in response to said determining to increase pressure generated by the flow generator; characterized in that in response to said increasing, the controller being further configured to make a determination that the increase in flow generator pressure has resulted in less than a desired increase in pressure at the patient interface, and in response to said determination, reducing or inhibiting further increase of the flow generator pressure. a flow generator to provide a continuous positive airway pressure; a patient interface to deliver the pressurized air to a patient; pressure and flow sensors (4p, 4f); and a controller configured to implement operation of the device including one or more leak control modes, wherein the one or more leak control modes includes reducing the flow generator pressure upon detection of mask leak to a sub-therapeutic pressure for a predetermined period of time to allow the patient interface to reseal against the patient's face and then ramping back up to therapeutic pressure; said controller being configured such that said one or more leak control modes includes sensing with the pressure and flow sensors a mask leak parameter which is a mask pressure, or a differential between a pressure at the flow generator and the mask, said controller also being configured to compare said mask leak parameter to a mask leak threshold to determine excessive mask leak, and said controller further being configured to determine whether pressure at the patient interface is below a desired value; the controller being configured in response to said determining to increase pressure generated by the flow generator; characterized in that in response to said increasing, the controller being further configured to make a determination that the increase in flow generator pressure has resulted in less than a desired increase in pressure at the patient interface, and in response to said determination, reducing or inhibiting further increase of the flow generator pressure.
A method of manufacturing a solution of nanoparticles of acetylsalicylic acid or diosmin or drotaverine, characterised in that, acetylsalicylic acid or diosmin or drotaverine is dissolved in an organic solvent, and at least one dispersing agent chosen from a group consisting of lecithin, gelatin and starch is dissolved in water, and then potassium sorbate is added, then the organic solution is added to the aqueous solution and the obtained mixture is homogenised through the use of ultrasonic frequencies until homogenous solution is obtained.
A fouling release coating system comprising: (a) a pressure sensitive adhesive foil comprising a fouling release coating; and (b) an edge sealant fouling release coating composition operable to be applied to an edge of the pressure sensitive adhesive foil. (a) a pressure sensitive adhesive foil comprising a fouling release coating; and (b) an edge sealant fouling release coating composition operable to be applied to an edge of the pressure sensitive adhesive foil.