mhurhangee/patent-ind-claim-en huggingface dataset:
A method of controlling a supply of feed water into a boiler , the boiler comprising a feed water inlet for supplying feed water into the boiler , a steam outlet for taking steam from the boiler and a liquid level sensor for measuring a liquid level in the boiler , the steam outlet comprising a steam valve defining a steam valve opening degree, the method comprising: measuring the liquid level in the boiler using the liquid level sensor , determining a rate of change of the steam valve opening degree, and controlling the supply of feed water into the boiler via the feed water inlet based on the liquid level in the boiler and a reference liquid level for the boiler characterised in that controlling the supply of feed water into the boiler is further based on the rate of change of the steam valve opening degree. measuring the liquid level in the boiler using the liquid level sensor , determining a rate of change of the steam valve opening degree, and controlling the supply of feed water into the boiler via the feed water inlet based on the liquid level in the boiler and a reference liquid level for the boiler characterised in that controlling the supply of feed water into the boiler is further based on the rate of change of the steam valve opening degree.
A refrigeration cycle apparatus characterized by comprising: a refrigeration cycle circuit including a compressor , an outdoor heat exchanger and an indoor heat exchanger ; a liquid receiver provided in a second section of a plurality of sections located in the refrigeration cycle circuit , the plurality of sections including a first section and the second section , the first section being a section extending between the outdoor heat exchanger and the indoor heat exchanger through the compressor , the second section being a section extending between the outdoor heat exchanger and the indoor heat exchanger without extending through the compressor ; a first valve provided in the second section and between the outdoor heat exchanger and the liquid receiver or provided in the first section , the first valve being an electronic expansion valve, a solenoid valve or a motor valve; a second valve provided in the second section and between the liquid receiver and the indoor heat exchanger , the second valve being an electronic expansion valve, a solenoid valve or a motor valve; and a controller configured to control the compressor , the first valve , and the second valve , the controller being configured to close one of the first valve and the second valve that is located downstream of the liquid receiver in a flow of refrigerant, when the compressor is stopped, and close the other of the first valve and the second valve that is located upstream of the liquid receiver in the flow of refrigerant after a predetermined time period elapses from time when the compressor is stopped. a refrigeration cycle circuit including a compressor , an outdoor heat exchanger and an indoor heat exchanger ; a liquid receiver provided in a second section of a plurality of sections located in the refrigeration cycle circuit , the plurality of sections including a first section and the second section , the first section being a section extending between the outdoor heat exchanger and the indoor heat exchanger through the compressor , the second section being a section extending between the outdoor heat exchanger and the indoor heat exchanger without extending through the compressor ; a first valve provided in the second section and between the outdoor heat exchanger and the liquid receiver or provided in the first section , the first valve being an electronic expansion valve, a solenoid valve or a motor valve; a second valve provided in the second section and between the liquid receiver and the indoor heat exchanger , the second valve being an electronic expansion valve, a solenoid valve or a motor valve; and a controller configured to control the compressor , the first valve , and the second valve , the controller being configured to close one of the first valve and the second valve that is located downstream of the liquid receiver in a flow of refrigerant, when the compressor is stopped, and close the other of the first valve and the second valve that is located upstream of the liquid receiver in the flow of refrigerant after a predetermined time period elapses from time when the compressor is stopped.
A routing method, wherein the method comprises: receiving an access request of a user, wherein the access request points to a particular page (S101); obtaining user attribute information of the user based on the access request (S102); obtaining, based on at least a part of the user attribute information and according to a preset rule, a server cluster corresponding to the user attribute information, wherein the server cluster is configured to provide a service on the particular page for the user (S103); and routing the access request to the server cluster, wherein the routing the access request to the server cluster comprises routing the access request to the server cluster through redirection using an HTTP status 302 or 301 when the access request is a stateless request and routing the access request to the server cluster through redirection using an HTTP status 308 or 307 when the access request is a stateful request. receiving an access request of a user, wherein the access request points to a particular page (S101); obtaining user attribute information of the user based on the access request (S102); obtaining, based on at least a part of the user attribute information and according to a preset rule, a server cluster corresponding to the user attribute information, wherein the server cluster is configured to provide a service on the particular page for the user (S103); and routing the access request to the server cluster, wherein the routing the access request to the server cluster comprises routing the access request to the server cluster through redirection using an HTTP status 302 or 301 when the access request is a stateless request and routing the access request to the server cluster through redirection using an HTTP status 308 or 307 when the access request is a stateful request.
An apparatus to be included in a user equipment ("UE") , the apparatus comprising: a hash value module to determine a first hash value that is generated based on an application identifier, characterized in that the application identifier is associated with an application, and in that the hash value module is to provide a resource by the UE, to determine a second hash value that is generated based on metadata associated with the resource to be provided by the UE , and to determine a port associated with the provision of the resource by the UE wherein the resource is a service or content to be provided by an application associated with the UE; and in that the apparatus further comprises: a communication interface , communicatively coupled with the hash value module , to transmit the first hash value, the second hash value, and an indication of the port to a web server as a Uniform Resource Identifier, URI, over a network to be published for another UE .
An antibody, comprising a heavy chain and a light chain, wherein the heavy chain comprises a heavy chain variable (VH) region and a heavy chain constant region, and the light chain comprises a light chain variable (VL) region; wherein the VL region comprises a VL complementary determining region (CDR) 1, a VL CDR2, and a VL CDR3, and wherein the VH region comprises a VH CDR1, a VH CDR2, and a VH CDR3; wherein the VL CDR1 comprises SEQ ID NO: 1; wherein the VL CDR2 comprises SEQ ID NO: 2; wherein the VL CDR3 comprises SEQ ID NO: 3; wherein the VH CDR1 comprises SEQ ID NO: 4; wherein the VH CDR2 comprises SEQ ID NO: 5; wherein the VH CDR3 comprises SEQ ID NO: 6; wherein the heavy chain constant region comprises a sequence at least 95% identical to SEQ ID NO: 28, wherein amino acid residue 308 of the heavy chain constant region corresponding to SEQ ID NO: 28 is Leu, and amino acid residue 314 of the heavy chain constant region corresponding to SEQ ID NO: 28 is Ser; wherein the antibody specifically binds activated C1s and has longer half-life as compared to comparable anti-C1s antibodies having a wildtype Fc region according to SEQ ID NO: 52 or an Fc region according to SEQ ID NO: 53. wherein the VL region comprises a VL complementary determining region (CDR) 1, a VL CDR2, and a VL CDR3, and wherein the VH region comprises a VH CDR1, a VH CDR2, and a VH CDR3; wherein the VL CDR1 comprises SEQ ID NO: 1; wherein the VL CDR2 comprises SEQ ID NO: 2; wherein the VL CDR3 comprises SEQ ID NO: 3; wherein the VH CDR1 comprises SEQ ID NO: 4; wherein the VH CDR2 comprises SEQ ID NO: 5; wherein the VH CDR3 comprises SEQ ID NO: 6; wherein the heavy chain constant region comprises a sequence at least 95% identical to SEQ ID NO: 28, wherein amino acid residue 308 of the heavy chain constant region corresponding to SEQ ID NO: 28 is Leu, and amino acid residue 314 of the heavy chain constant region corresponding to SEQ ID NO: 28 is Ser; wherein the antibody specifically binds activated C1s and has longer half-life as compared to comparable anti-C1s antibodies having a wildtype Fc region according to SEQ ID NO: 52 or an Fc region according to SEQ ID NO: 53.
Method for wide range gas detection using a gas detection system comprising a sample gas inlet , a reference gas inlet , a gas modulation valve and an infrared gas analyzer having an optical path in which infrared radiation interacts with the gas to be analyzed, wherein the gas modulation valve alternatingly connects the sample gas inlet to the gas analyzer during a sample gas time period and the reference gas inlet to the gas analyzer during a reference gas time period, characterized in that the sample gas time period is shorter than the reference gas time period such that the sample gas concentration in the optical path of the gas analyzer is reduced.
A storage, collection and internal and external recirculation station of a fluid substance, said station comprising a tank equipped with a lower supply opening and an upper loading opening and an internal recirculation circuit of the fluid substance contained in said tank ; said internal recirculation circuit being equipped with a first end associated with said lower supply opening and a second end associated with said upper loading opening ; between said first and second end of said recirculation circuit , there being provided a pump and a first valve , said first valve being associable with an external tank in which the fluid substance to be made homogeneous is stored, through a loading duct and being configurable to selectively define the conditions of: - recirculation of the fluid substance contained in said tank through said internal recirculation circuit from said lower supply opening to said upper loading opening , isolating said external tank ; and - charging the fluid substance from said external tank to said tank , isolating the lower supply opening of said tank , characterized in that said internal recirculation circuit comprises a second valve downstream of said first valve following the flow of the fluid substance; said second valve being configurable to allow the advancement of the fluid substance coming from said first valve along said internal recirculation circuit towards said upper loading opening ; wherein said second valve being associable with said external tank through a return duct by realizing an external recirculation circuit realizing the homogenization of the fluid substance contained into the external tank by deviating the fluid substance coming from said first valve in said internal recirculation circuit towards said external tank through said return duct and said valves are equipped with rapid couplings to said loading duct and to said return duct , said loading duct and said return duct are flexible pipes. - recirculation of the fluid substance contained in said tank through said internal recirculation circuit from said lower supply opening to said upper loading opening , isolating said external tank ; and - charging the fluid substance from said external tank to said tank , isolating the lower supply opening of said tank , characterized in that said internal recirculation circuit comprises a second valve downstream of said first valve following the flow of the fluid substance; said second valve being configurable to allow the advancement of the fluid substance coming from said first valve along said internal recirculation circuit towards said upper loading opening ;
A run-flat tire provided with a sidewall reinforcing layer inside the sidewall , which has an uneven portion on the surface portion of the sidewall , characterized in that the sidewall reinforcing layer has the breaking strength TB (MPa) × break elongation EB (%) of 320 or more at 100°C, and the loss tangent at 100°C, 100°Ctan δ, of 0.06 or less; and the sidewall has a loss tangent at 60°C, 60°Ctan δ, of 0.17 or less, and has the difference between the loss tangent at 60°C and the loss tangent at 75°C, |60°Ctan δ-75°Ctan δ | , of less than 0.05. characterized in that the sidewall reinforcing layer has the breaking strength TB (MPa) × break elongation EB (%) of 320 or more at 100°C, and the loss tangent at 100°C, 100°Ctan δ, of 0.06 or less; and the sidewall has a loss tangent at 60°C, 60°Ctan δ, of 0.17 or less, and has the difference between the loss tangent at 60°C and the loss tangent at 75°C, |60°Ctan δ-75°Ctan δ | , of less than 0.05.
A portable cooking apparatus comprising: a cooking space defined by a lower shelf , a top panel and side walls , the cooking space having an open front; a heating means for providing heat in a generally lateral direction to the cooking space; a food holding means for holding food in the cooking space , the food holding means comprising a plurality of vertically spaced slots formed in each of the side walls dimensioned to receive respective end portions of a skewer; a moisture infusion assembly disposed along and covering the lower shelf , and extending across and covering a lower portion of the cooking space for supplying moisture to the cooking space in use; and characterised in that the moisture infusion assembly comprises a tray having a variable opening gate configurable between fully closed and fully opened positions, and partially opened positions therebetween. a cooking space defined by a lower shelf , a top panel and side walls , the cooking space having an open front; a heating means for providing heat in a generally lateral direction to the cooking space; a food holding means for holding food in the cooking space , the food holding means comprising a plurality of vertically spaced slots formed in each of the side walls dimensioned to receive respective end portions of a skewer; a moisture infusion assembly disposed along and covering the lower shelf , and extending across and covering a lower portion of the cooking space for supplying moisture to the cooking space in use; and characterised in that the moisture infusion assembly comprises a tray having a variable opening gate configurable between fully closed and fully opened positions, and partially opened positions therebetween.
A cartridge for supplying fluid in a transdermal drug delivery apparatus , the cartridge comprising: a body including a substantially concave wall, wherein the substantially concave wall at least partially defines an interior of the body for containing fluid for being delivered by the transdermal drug delivery apparatus, the body at least partially defines opposite first and second openings to the interior of the body, and the second opening is proximate the substantially concave wall; a self-sealing member at least partially closing the first opening; and a deformable member at least partially closing the second opening, wherein the deformable member is configured for being urged into the interior of the body and at least partially conforming to the concave wall for increasing pressure within the interior of the body. a body including a substantially concave wall, wherein the substantially concave wall at least partially defines an interior of the body for containing fluid for being delivered by the transdermal drug delivery apparatus, the body at least partially defines opposite first and second openings to the interior of the body, and the second opening is proximate the substantially concave wall; the substantially concave wall at least partially defines an interior of the body for containing fluid for being delivered by the transdermal drug delivery apparatus, the body at least partially defines opposite first and second openings to the interior of the body, and the second opening is proximate the substantially concave wall; a self-sealing member at least partially closing the first opening; and a deformable member at least partially closing the second opening, wherein the deformable member is configured for being urged into the interior of the body and at least partially conforming to the concave wall for increasing pressure within the interior of the body.
Foundation structure of an offshore structure , in particular of a wind turbine , with a floating foundation , comprising at least one floating body for floating on the surface of the sea (MO), at least one anchor for anchoring the at least one floating body to the seafloor (MB) and at least one holding element for holding the at least one floating body to the at least one anchor , wherein at least one transmission cable extends from the at least one anchor along the at least one holding element to the at least one floating body and/or back, wherein the transmission cable is guided in sections through at least one protection element provided between the holding element and the at least one anchor and/or the at least one floating body and wherein the at least one protection element is fixedly connected to the at least one holding element and/or to the at least one floating body or to the at least one anchor , characterised in that at least one end of the protection element is inserted into the holding element and/or the floating body or anchor .
A method for producing a glyceryl ether-containing composition, the method comprising: a deodorization step for bringing a glyceryl ether-containing product selected from the group consisting of a monohexyl glyceryl ether-containing product, a monocyclohexyl glyceryl ether-containing product and a mixture thereof into contact with water vapor in an environment having a reduced pressure of 0.10 kPa or more and 10 kPa or less for 60 minutes or more and to 600 minutes or less; and an addition step for adding 0.05 to 0.30 parts by mass of an antioxidant containing d-α-tocopherol to 100 parts by mass of the glyceryl ether-containing product.
Torque limiting coupling comprising a first shaft , a second shaft , which is designed as a hollow shaft, and a coupling ring , where the coupling ring comprises a coupling sleeve with an inner surface and an outer surface , where the coupling sleeve is arranged in radial direction (R) between the first shaft and the second shaft , such that the inner surface is in frictional contact with the first shaft and the outer surface is in frictional contact with the second shaft , and where the coupling sleeve is double-walled with an internal annular pressure oil chamber , designed in such a way, that the coupling sleeve increases its radial thickness (t) when the oil chamber is filled with pressurized oil and thereby increases the pressure forces and thereby the friction between the surfaces and the shafts in order to allow torque transfer between the two shafts , and that the coupling sleeve transfers no torque, when the oil chamber is not filled with pressurized oil, characterized in that the outer surface of the coupling sleeve which is in contact with the second shaft is of conical shape and that the second shaft has a corresponding conical surface.
A display device comprising: a base ; a light emitting element (ED1, ED2, ED3) on the base ; a capping layer on the light emitting element (ED); a thin-film encapsulation layer comprising a first inorganic layer on the capping layer , an organic layer on the first inorganic layer , and a second inorganic layer on the organic layer ; and a wavelength conversion pattern on the thin-film encapsulation layer and overlapping the light emitting element (ED1, ED2, ED3), wherein the first inorganic layer comprises a first sub-inorganic layer on the capping layer and a second sub-inorganic layer on the first sub-inorganic layer , and the second sub-inorganic layer is greater in refractive index than the first sub-inorganic layer and the refractive index (n11)of the first sub-inorganic layer and the refractive index (n13) of the second sub-inorganic layer are each 1.7 or less. a base ; a light emitting element (ED1, ED2, ED3) on the base ; a capping layer on the light emitting element (ED); a thin-film encapsulation layer comprising a first inorganic layer on the capping layer , an organic layer on the first inorganic layer , and a second inorganic layer on the organic layer ; and a wavelength conversion pattern on the thin-film encapsulation layer and overlapping the light emitting element (ED1, ED2, ED3), wherein the first inorganic layer comprises a first sub-inorganic layer on the capping layer and a second sub-inorganic layer on the first sub-inorganic layer , and the second sub-inorganic layer is greater in refractive index than the first sub-inorganic layer and the refractive index (n11)of the first sub-inorganic layer and the refractive index (n13) of the second sub-inorganic layer are each 1.7 or less.
An exhaust purification system for the reduction of emissions from an exhaust stream, comprising, in order: a. an upstream catalyst coupled with a passive NO x adsorber catalyst; b. means to contact the exhaust stream with ozone, to react NO in the exhaust stream with the ozone to produce NO 2 ; c. an SCR catalyst. a. an upstream catalyst coupled with a passive NO x adsorber catalyst; b. means to contact the exhaust stream with ozone, to react NO in the exhaust stream with the ozone to produce NO 2 ; c. an SCR catalyst.