mhurhangee/ep-ind-claims huggingface dataset:
Use of probiotic bifidobacteria of the strain Bifidobacterium lactis Bb-12, for the preparation of a composition useful for primary prevention of atopic diseases in an infant at high risk of atopic diseases.
An energy harvesting device configured to be worn on an appendage of a user, comprising: an insulated container, comprising: a thermoelectric generator module (1706, 2202) positioned within an outer cavity, the thermoelectric generator sandwiched between an outer heat exchanger and an inner heat exchanger, the insulated container having a primary axis of conduction through the inner heat exchanger, the thermoelectric generator, and the outer heat exchanger; and an activity monitoring circuit; wherein the activity monitoring circuit is powered by the thermoelectric generator, characterised in that the activity monitoring circuit is configured to monitor a voltage output from the thermoelectric generator, and wherein the output voltage is proportional to an activity level of the user such that an activity is identifiable by the activity monitoring circuit based on output voltage. an insulated container, comprising: a thermoelectric generator module (1706, 2202) positioned within an outer cavity, the thermoelectric generator sandwiched between an outer heat exchanger and an inner heat exchanger, the insulated container having a primary axis of conduction through the inner heat exchanger, the thermoelectric generator, and the outer heat exchanger; and an activity monitoring circuit; a thermoelectric generator module (1706, 2202) positioned within an outer cavity, the thermoelectric generator sandwiched between an outer heat exchanger and an inner heat exchanger, the insulated container having a primary axis of conduction through the inner heat exchanger, the thermoelectric generator, and the outer heat exchanger; and an activity monitoring circuit; wherein the activity monitoring circuit is powered by the thermoelectric generator, characterised in that the activity monitoring circuit is configured to monitor a voltage output from the thermoelectric generator, and wherein the output voltage is proportional to an activity level of the user such that an activity is identifiable by the activity monitoring circuit based on output voltage.
A liquid circulation heating system (1A, 1B, 1C) for performing air-heating by heating a liquid to produce a heated liquid and releasing heat of the heated liquid from a heating radiator, the system comprising a heat pump circuit for circulating a refrigerant, wherein the heat pump circuit includes: a refrigerant radiator for heating the liquid by radiating heat from the refrigerant to produce the heated liquid, a compressor for compressing the refrigerant; a decompressor for decompressing the refrigerant; wherein the decompressor comprises a first expansion valve (23, 23A), an evaporator for evaporating the refrigerant; and a vapor-liquid separator for separating the refrigerant into a gas refrigerant and a liquid refrigerant, and characterized in that the heat pump circuit is charged with a zeotropic refrigerant mixture of at least two refrigerants having different boiling points, as the refrigerant, and in that the liquid circulation heating system further comprises a controller (5, 26) which reduces an opening of the first expansion valve when the temperature of the liquid supplied to the refrigerant radiator as detected by an incoming liquid temperature sensor is higher than a predetermined temperature for performing a control operation to reduce an amount of the liquid refrigerant in the vapor-liquid separator so that a composition ratio of a higher boiling point refrigerant in the refrigerant circulating through the heat pump circuit increases when the liquid supplied to the refrigerant radiator has a relatively high temperature. a refrigerant radiator for heating the liquid by radiating heat from the refrigerant to produce the heated liquid, a compressor for compressing the refrigerant; a decompressor for decompressing the refrigerant; wherein the decompressor comprises a first expansion valve (23, 23A), an evaporator for evaporating the refrigerant; and a vapor-liquid separator for separating the refrigerant into a gas refrigerant and a liquid refrigerant, and characterized in that the heat pump circuit is charged with a zeotropic refrigerant mixture of at least two refrigerants having different boiling points, as the refrigerant, and in that the liquid circulation heating system further comprises a controller (5, 26) which reduces an opening of the first expansion valve when the temperature of the liquid supplied to the refrigerant radiator as detected by an incoming liquid temperature sensor is higher than a predetermined temperature for performing a control operation to reduce an amount of the liquid refrigerant in the vapor-liquid separator so that a composition ratio of a higher boiling point refrigerant in the refrigerant circulating through the heat pump circuit increases when the liquid supplied to the refrigerant radiator has a relatively high temperature.
A method of manufacturing a stent graft with at least two fenestrations (54, 56) for placement into a body vessel having an inner wall with side branch vessels (13, 15), the stent graft being intended for access to the side branch vessels through the fenestrations (54, 56), the method including pre-operative sizing of the stent graft by the steps of: a) determining the internal diameter of the body vessel at the level of the side branch vessels (13, 15), b) assessing the angular position of each of the side branch vessels (13, 15) from a selected datum position on the vessel, c) converting the angular position to a circumferential distance along the inner wall of the vessel from the selected vessel datum to each side branch vessel for each of the branch vessels (13, 15), d) selecting a diameter of stent graft which is 10% to 20% greater than the determined diameter of the vessel, and e) positioning fenestrations (54, 56) on the stent graft such that each is the converted distance calculated in step c) from a stent datum position on the stent. a) determining the internal diameter of the body vessel at the level of the side branch vessels (13, 15), b) assessing the angular position of each of the side branch vessels (13, 15) from a selected datum position on the vessel, c) converting the angular position to a circumferential distance along the inner wall of the vessel from the selected vessel datum to each side branch vessel for each of the branch vessels (13, 15), d) selecting a diameter of stent graft which is 10% to 20% greater than the determined diameter of the vessel, and e) positioning fenestrations (54, 56) on the stent graft such that each is the converted distance calculated in step c) from a stent datum position on the stent.
A connected impeller and shaft, wherein the shaft has a first part which provides a threaded portion carrying a thread which screws onto a corresponding threaded portion of the impeller, and a second part which provides an abutment surface for engaging a corresponding abutment surface of the impeller when the threaded portions are screwed together thereby tightening the threads to provide a rotationally fixed connection between the impeller and the shaft, the first part being rotationally fixed relative to the second part at a joint, the threaded portion of the shaft being axially spaced a first distance (d 1) from the abutment surface of the shaft, the threaded portion of the shaft being axially spaced from the joint by a second distance (d 2) which is greater than the first distance, and the threaded portion of the shaft and the joint being on the same side of the impeller; and wherein the impeller has a connector which provides the corresponding threaded portion and the corresponding abutment surface, the connector being rotationally fixed relative to the rest of the impeller; and wherein the impeller has a shaft-side hub extension with a central recess, the connector is inserted into the recess, and an outwardly facing surface of the connector frictionally connects with a radially inner surface of the hub extension characterised in that: the impeller is formed of a material having a greater coefficient of thermal expansion than the material of the shaft; and the connector is formed of a material having a coefficient of thermal expansion which is greater than the coefficient of thermal expansion of the material of the shaft. the impeller is formed of a material having a greater coefficient of thermal expansion than the material of the shaft; and the connector is formed of a material having a coefficient of thermal expansion which is greater than the coefficient of thermal expansion of the material of the shaft.
A compound of Formula wherein X is CH; L is a bond; R 1 is -C OR A; R A is H; R 2 is H or F; R 3 is Cl, F, or CN; R 4 and R 5 are H; R 6 and R 7 are independently H, F, or methoxy; R 9 and R 10 are H; and R 8 is (C 3 -C 8)cycloalkyl wherein the (C 3 -C 8)cycloalkyl is cyclobutyl substituted with hydroxyl; or a pharmaceutically acceptable salt thereof. X is CH; L is a bond; R 1 is -C OR A; R A is H; R 2 is H or F; R 3 is Cl, F, or CN; R 4 and R 5 are H; R 6 and R 7 are independently H, F, or methoxy; R 9 and R 10 are H; and R 8 is (C 3 -C 8)cycloalkyl wherein the (C 3 -C 8)cycloalkyl is cyclobutyl substituted with hydroxyl; or a pharmaceutically acceptable salt thereof.
A hair holder comprising a tubular body which includes a sheet and into which a bundle of hair can be inserted from an opening at one of opposite ends of the tubular body toward an opening at the other end, wherein the tubular body is capable of being rolled up, and has a first winding and tightening tab (8A1) on one of opposite side edges of the tubular body and a second winding and tightening tab (8A2) on the other side edge of the tubular body, the first winding and tightening tab is disposed only in an end portion region on the opening side at the one end, characterized in that the second winding and tightening tab is disposed only in an end portion region on the opening side at the other end.
An active camming device comprising: a head member comprising a terminal and an axle; a plurality of cam lobes rotatably coupled to the axle, wherein the plurality of cam lobes are rotatable between an extended state and a retracted state with respect to the axle, and wherein the cam lobes are spring biased toward the extended state; a connection system configured to fixably intercouple the terminal with a cable, wherein the cable includes a connection point disposed on a lengthwise end opposite the terminal; a retraction system configured to selectively engage the retracted state, wherein the retraction system includes fixably coupling the plurality of cam lobes with a retraction sleeve and a trigger, and wherein the retraction sleeve and trigger are slidably externally coupled to the cable; and characterised in that the retraction system includes a plurality of independent sleeves slidably externally coupled to the cable between the plurality of cam lobes and the trigger, and in that the plurality of independent sleeves are slidable and external with respect to the retraction sleeve, and wherein the plurality of independent sleeves substantially externally cover the retraction sleeve. a head member comprising a terminal and an axle; a plurality of cam lobes rotatably coupled to the axle, wherein the plurality of cam lobes are rotatable between an extended state and a retracted state with respect to the axle, and wherein the cam lobes are spring biased toward the extended state; a connection system configured to fixably intercouple the terminal with a cable, wherein the cable includes a connection point disposed on a lengthwise end opposite the terminal; a retraction system configured to selectively engage the retracted state, wherein the retraction system includes fixably coupling the plurality of cam lobes with a retraction sleeve and a trigger, and wherein the retraction sleeve and trigger are slidably externally coupled to the cable; and characterised in that the retraction system includes a plurality of independent sleeves slidably externally coupled to the cable between the plurality of cam lobes and the trigger, and in that the plurality of independent sleeves are slidable and external with respect to the retraction sleeve, and wherein the plurality of independent sleeves substantially externally cover the retraction sleeve.
A method of producing stable disinfectant for use as a biocidal composition, the method comprising: providing reagents, the reagents comprising: a) an amine source of disinfectant in concentrated form, b) an oxidizing halogen compound in concentrated form, and c) a diluent asynchronously feeding the amine source of disinfectant in concentrated form and oxidizing halogen compound in concentrated form into an area in a mixing line where the diameter of the line is larger than the largest individual reagent supply line leading into it and in which the transition from the smaller to larger diameter is not streamlined, whereby when a liquid flows into this area the change in diameter results in eddies which mix the fed materials in an erratic manner and prevents channeling, and allowing all three of the reagents to come into contact and mix with each other, wherein the disinfectant is produced according to a continuous dose process. providing reagents, the reagents comprising: a) an amine source of disinfectant in concentrated form, b) an oxidizing halogen compound in concentrated form, and c) a diluent a) an amine source of disinfectant in concentrated form, b) an oxidizing halogen compound in concentrated form, and c) a diluent asynchronously feeding the amine source of disinfectant in concentrated form and oxidizing halogen compound in concentrated form into an area in a mixing line where the diameter of the line is larger than the largest individual reagent supply line leading into it and in which the transition from the smaller to larger diameter is not streamlined, whereby when a liquid flows into this area the change in diameter results in eddies which mix the fed materials in an erratic manner and prevents channeling, and allowing all three of the reagents to come into contact and mix with each other, wherein the disinfectant is produced according to a continuous dose process.
Use of a resin composition for forming a heat storage material, the resin composition comprising: an acrylic resin; and a curing agent, wherein the acrylic resin comprises a first structural unit represented by the following formula: wherein R 3 represents a hydrogen atom or a methyl group, and R 4 represents an alkyl group having 12 to 30 carbon atoms, a second structural unit having a reactive group capable of reacting with the curing agent, and a third structural unit derived from at least one monomer selected from the group consisting of an alkyl (meth)acrylate having an alkyl group having 1 to 11 carbon atoms at a terminal of an ester group and a cycloalkyl (meth)acrylate having a cyclic hydrocarbon group at a terminal of an ester group, wherein the weight average molecular weight of the acrylic resin is 200,000 or more, determined as defined in the description, the reactive group is an epoxy group, and the curing agent is at least one curing agent selected from the group consisting of an isocyanate curing agent, a phenolic curing agent, an amine curing agent, an imidazole curing agent, and an acid anhydride curing agent. an acrylic resin; and a curing agent, wherein the acrylic resin comprises a first structural unit represented by the following formula: wherein R 3 represents a hydrogen atom or a methyl group, and R 4 represents an alkyl group having 12 to 30 carbon atoms, a second structural unit having a reactive group capable of reacting with the curing agent, and a third structural unit derived from at least one monomer selected from the group consisting of an alkyl (meth)acrylate having an alkyl group having 1 to 11 carbon atoms at a terminal of an ester group and a cycloalkyl (meth)acrylate having a cyclic hydrocarbon group at a terminal of an ester group, a first structural unit represented by the following formula: wherein R 3 represents a hydrogen atom or a methyl group, and R 4 represents an alkyl group having 12 to 30 carbon atoms, a second structural unit having a reactive group capable of reacting with the curing agent, and a third structural unit derived from at least one monomer selected from the group consisting of an alkyl (meth)acrylate having an alkyl group having 1 to 11 carbon atoms at a terminal of an ester group and a cycloalkyl (meth)acrylate having a cyclic hydrocarbon group at a terminal of an ester group, wherein the weight average molecular weight of the acrylic resin is 200,000 or more, determined as defined in the description, the reactive group is an epoxy group, and the curing agent is at least one curing agent selected from the group consisting of an isocyanate curing agent, a phenolic curing agent, an amine curing agent, an imidazole curing agent, and an acid anhydride curing agent.
A powered rail flatcar for containers comprising a frame structure, whereby: a running gear is provided at the bottom of the frame structure, and automatic couplers are provided at two ends of the frame structure; the powered rail flatcar for containers further comprises an onboard control system, an automatic coupler control system, a power and traction system, a brake system and a positioning system positioned on the frame structure; the automatic coupler control system is used for controlling the coupler of the flatcar to be automatically coupled or uncoupled with couplers of other flatcars; the power and traction system comprises a power module used for providing power for the running gear, and the power module can be connected or disconnected with the running gear; the brake system comprises a brake and a brake control device; the positioning system is used for positioning the powered rail flatcar for containers; the onboard control system is in communication connection with the automatic coupler control system, the power and traction system, the brake system and the positioning system and is used for acquiring state information of each system and issuing operating instructions to each system; wherein said onboard control system controls the powered rail flatcar for containers to operate in a single flatcar operating mode, a coupled operating mode or a train operating mode; wherein the power mode of the power module is an internal combustion power mode, a storage battery mode or a super capacitor mode, and when the powered rail flatcar for containers operates in a single flatcar operating mode or a coupled operating mode, the onboard control system controls the power of the powered rail flatcar for containers to be provided by the power module; when the powered rail flatcar for containers is pulled by a locomotive to operate in the train operating mode, the onboard control system controls the power of the powered rail flatcar for containers to be provided by the locomotive for charging the power module being in the storage battery mode or the super capacitor mode. wherein said onboard control system controls the powered rail flatcar for containers to operate in a single flatcar operating mode, a coupled operating mode or a train operating mode; wherein the power mode of the power module is an internal combustion power mode, a storage battery mode or a super capacitor mode, and when the powered rail flatcar for containers operates in a single flatcar operating mode or a coupled operating mode, the onboard control system controls the power of the powered rail flatcar for containers to be provided by the power module; when the powered rail flatcar for containers is pulled by a locomotive to operate in the train operating mode, the onboard control system controls the power of the powered rail flatcar for containers to be provided by the locomotive for charging the power module being in the storage battery mode or the super capacitor mode.
A mobile station, comprising: a first wireless interface configured to couple to a first wireless network; a second wireless interface configured to couple to a second wireless network; and a controller configured to negotiate a first wireless link with the first wireless network using the first wireless interface, to establish a communication session with a device using the first wireless link, to facilitate a session handoff with a second wireless link with the second wireless network using the second wireless interface, and to invoke a selected one of a plurality of private branch exchange features, wherein the handoff is enabled by a mobility application that is operable to communicate with the mobile station, and wherein the mobility application is operable to associate the first wireless link to the second wireless link, characterised by the association of the first wireless link to the second wireless link being executed using a unique session ID and the unique session ID is implemented in conjunction with one or more dual tone multi-frequency, DTMF, codes, the unique session ID being used to identify the mobile station and an ongoing active call for the handoff, and wherein the mobile station uses one or more of the DTMF codes to signal the session ID to the mobility application when it is in the first network, wherein the association between the first wireless link to the second wireless link is executed in conjunction with one or more SMS signals. a first wireless interface configured to couple to a first wireless network; a second wireless interface configured to couple to a second wireless network; and a controller configured to negotiate a first wireless link with the first wireless network using the first wireless interface, to establish a communication session with a device using the first wireless link, to facilitate a session handoff with a second wireless link with the second wireless network using the second wireless interface, and to invoke a selected one of a plurality of private branch exchange features, wherein the handoff is enabled by a mobility application that is operable to communicate with the mobile station, and wherein the mobility application is operable to associate the first wireless link to the second wireless link, characterised by the association of the first wireless link to the second wireless link being executed using a unique session ID and the unique session ID is implemented in conjunction with one or more dual tone multi-frequency, DTMF, codes, the unique session ID being used to identify the mobile station and an ongoing active call for the handoff, and wherein the mobile station uses one or more of the DTMF codes to signal the session ID to the mobility application when it is in the first network, wherein the association between the first wireless link to the second wireless link is executed in conjunction with one or more SMS signals.
Safety device for a motor vehicle, with at least one sensor, which is configured to detect an impending impact or an impending collision and optionally to generate a trigger signal, and also with a control device, which is configured, in the event of a trigger signal being present, to trigger a protection device and to check whether the predicted impact or the collision has taken place within a predicted period of time, characterised in that, in the event of a false triggering being detected, the safety device takes over control of the motor vehicle and puts it into an automatic drive mode, as a result of which the motor vehicle is brought into a safe state.