mhurhangee/patent-ind-claim-en huggingface dataset:
An anchorage device configured to surround an implantable medical device, the anchorage device comprising: a first component comprising a first substrate ; and a second component comprising a second substrate , the second component being positioned within the first component, wherein one of the first and second substrates comprises a hemostatic agent and the other of the first and second substrates comprises an active pharmaceutical ingredient; wherein the first substrate comprises a first piece and a second piece that is joined with the first piece, the first piece and the second piece forming a first pocket having a first cavity and a first opening that is in communication with the first cavity, the second component being configured to be inserted through the first opening and into the first cavity; and wherein the second substrate comprises a third piece and a fourth piece that is joined with the third piece, the third piece and the fourth piece forming a second pocket having a second cavity and a second opening that is in communication with the second cavity, the second pocket being configured to have the implantable medical device inserted through the second opening and into the second cavity; and wherein the first piece and the second piece include a mesh. a first component comprising a first substrate ; and a second component comprising a second substrate , the second component being positioned within the first component, wherein one of the first and second substrates comprises a hemostatic agent and the other of the first and second substrates comprises an active pharmaceutical ingredient; wherein the first substrate comprises a first piece and a second piece that is joined with the first piece, the first piece and the second piece forming a first pocket having a first cavity and a first opening that is in communication with the first cavity, the second component being configured to be inserted through the first opening and into the first cavity; and wherein the second substrate comprises a third piece and a fourth piece that is joined with the third piece, the third piece and the fourth piece forming a second pocket having a second cavity and a second opening that is in communication with the second cavity, the second pocket being configured to have the implantable medical device inserted through the second opening and into the second cavity; and wherein the first piece and the second piece include a mesh.
Control valve for setting a process fluid stream of a processing plant, comprising: - a valve housing including an inlet, an outlet and an aperture extending between the inlet and the outlet along a longitudinal axis; - a valve cage to be mounted on the valve housing with a valve seat ; - an annular-groove-shaped seal reception which is confined by the valve seat and the valve housing; and - a seal inserted into the seal reception ; wherein both the valve seat as well as the valve housing each form a ledge protruding in a radial direction (R) for realizing the annular-groove-shaped seal reception , wherein both ledges each confine the seal reception in one axial direction (A), wherein the seal is arranged in the seal reception in a normal operating condition or immediately after the assembly that a contact-freeness is present regarding at least one ledge , wherein the seal reception is confined in the radial direction (R) by a circumferential confinement inner wall of the valve seat and a circumferential confinement outer wall . - a valve housing including an inlet, an outlet and an aperture extending between the inlet and the outlet along a longitudinal axis; - a valve cage to be mounted on the valve housing with a valve seat ; - an annular-groove-shaped seal reception which is confined by the valve seat and the valve housing; and - a seal inserted into the seal reception ;
Pharmaceutical composition comprising: • testosterone, • at least one C2-C6 alcohol, • at least one gelling agent, • a penetration enhancer, which is propylene glycol, and • water; wherein the composition comprises 0.5 to 2.5 % (w/w) of the said propylene glycol and 0.7 to 1.5% (w/w) of testosterone. • testosterone, • at least one C2-C6 alcohol, • at least one gelling agent, • a penetration enhancer, which is propylene glycol, and • water;
A method of predicting temperature of a resistive heating element in a heating system, the method comprising obtaining resistance characteristics of the resistive heating element and compensating for variations in resistance characteristics over a temperature regime, characterized in that the method further includes interpreting and calibrating resistance characteristics based on priori measurements, in situ measurements, or combinations thereof, wherein the priori measurements include a resistance to temperature relationship that is interpreted and calibrated by using a model-based approach and the heating system is adjusted near at least one local minimum of a R-T characteristic, at least one local maximum of the R-T characteristic, or combinations thereof.
A spark plug comprising: a center electrode and a ground electrode having a gap between the center electrode and the ground electrode , wherein the ground electrode includes an outer layer which is formed from an Ni-based alloy and a core portion which is covered by the outer layer and formed from material having higher thermal conductivity than that of the outer layer , characterized in that the melting point of the Ni-based alloy forming the outer layer is 1150°C or more and 1350°C or less, and a difference between a melting start temperature and a melting completion temperature of the outer layer is 100°C or more. a center electrode and a ground electrode having a gap between the center electrode and the ground electrode , wherein the ground electrode includes an outer layer which is formed from an Ni-based alloy and a core portion which is covered by the outer layer and formed from material having higher thermal conductivity than that of the outer layer , characterized in that the melting point of the Ni-based alloy forming the outer layer is 1150°C or more and 1350°C or less, and a difference between a melting start temperature and a melting completion temperature of the outer layer is 100°C or more.
A power mop , comprising: (a) a tank for holding a liquid and adapted to be positioned for gravity-induced flow of the liquid, and including a gravity feed conduit for transporting the liquid from the tank ; (b) a hand grip comprising a liquid inlet communicating with the gravity feed conduit for receiving the gravity-induced flow of the liquid from the tank , a valve for controlling the flow of the liquid from the tank to a pump located downstream from the valve for providing flow pressure to the liquid, a battery for powering the pump , and a switch accessible external to the hand grip for powering the pump and switching the valve between open and closed liquid flow positions; (c) a handle tube connected to the hand grip comprising a pressure feed conduit for receiving pressurized flow of the liquid from the hand grip ; (d) a nozzle mounted on the handle tube and adapted to disperse the liquid onto a surface to be mopped; and (e) a mop head attached on an end of the handle tube remote from the hand grip . (a) a tank for holding a liquid and adapted to be positioned for gravity-induced flow of the liquid, and including a gravity feed conduit for transporting the liquid from the tank ; (b) a hand grip comprising a liquid inlet communicating with the gravity feed conduit for receiving the gravity-induced flow of the liquid from the tank , a valve for controlling the flow of the liquid from the tank to a pump located downstream from the valve for providing flow pressure to the liquid, a battery for powering the pump , and a switch accessible external to the hand grip for powering the pump and switching the valve between open and closed liquid flow positions; (c) a handle tube connected to the hand grip comprising a pressure feed conduit for receiving pressurized flow of the liquid from the hand grip ; (d) a nozzle mounted on the handle tube and adapted to disperse the liquid onto a surface to be mopped; and (e) a mop head attached on an end of the handle tube remote from the hand grip .
Method for obtaining metals of the 8th to 14th groups, in particular raw copper, comprising the steps of: i) providing and melting down a feed mixture comprising electrical scrap in an amount of at least 10 wt% in a smelting reactor, so that a first melt with a first metallic phase and a first slag phase is formed, ii) separating the first slag phase from the smelting reactor, iii) refining the remaining first metallic phase by means of an oxygen-containing gas, optionally with the addition of copper-containing residual materials, so that a second, copper-enriched slag phase is formed, iv) optionally separating off the second slag phase and repeating step iii), v) separating the refined first metallic phase from the smelting reactor; and vi) addiing a further feed mixture comprising electrical scrap to the remaining second, copper-enriched slag phase and repeating process steps i) to vi). i) providing and melting down a feed mixture comprising electrical scrap in an amount of at least 10 wt% in a smelting reactor, so that a first melt with a first metallic phase and a first slag phase is formed, ii) separating the first slag phase from the smelting reactor, iii) refining the remaining first metallic phase by means of an oxygen-containing gas, optionally with the addition of copper-containing residual materials, so that a second, copper-enriched slag phase is formed, iv) optionally separating off the second slag phase and repeating step iii), v) separating the refined first metallic phase from the smelting reactor; and vi) addiing a further feed mixture comprising electrical scrap to the remaining second, copper-enriched slag phase and repeating process steps i) to vi).
A composition comprising Terminalia bellerica extract for use in the treatment or prevention of a free radical-induced disease by inhibiting xanthine oxidase activity in an individual, wherein the Terminalia bellerica extract composition comprises not less than 2% by weight of chebulinic acid based on the total weight of the extract, not less than 2% by weight of chebulagic acid based on the total weight of the extract, and not less than 10% by weight other low molecular weight hydrolyzable tannoids based on the total weight of the extract and wherein the free radical-induced disease is selected from the group consisting of gout, uricemia, and hyperuricemia.
Connecting element (21a; 21b) for an alternator of an electric energy production plant ; the alternator extending along a longitudinal axis (A) and comprising a shaft , a stator , and a rotor ; the connecting element (21a; 21b) comprising a first end portion couplable to a main conductor arranged inside an axial seat of the rotor of the alternator and a second end portion couplable to a respective conducting element (8; 15); wherein the second end portion of the connecting element (21a; 21b) is provided with at least one sealing element having a substantially C-shaped cross section; wherein the sealing element is a sealing ring arranged in an annular seat (47; 48) of the second end portion ; wherein the annular seat (47; 48) is open along the periphery of the connecting element (21a; 21b) and is in communication with an area extending between the rotor and the stator ; the sealing element comprising two sealing lips and an annular throat , which defines the inner space of the C-shaped cross section extending between the sealing lips ; the sealing element being arranged in the annular seat (47; 48) so that the throat is in communication with the open portion of the annular seat (47; 48), and so that the throat is exposed to the area extending between the rotor and the stator .
A control apparatus constituting an autonomous distributed radio network with at least one of equipment , comprising: an application processing unit processing an application to control the equipment , and a communication control unit managing route information by each of the equipment according to a prescribed communication protocol positioned in a lower layer than the application; characterised in that when the number of the equipment included in the radio network is equal to or less than a threshold determined in accordance with an upper limit number of the route information capable of being managed by the communication control unit , the application processing unit selects a first mode, when the number of the equipment included in the radio network is more than the threshold, the application processing unit selects a second mode, in the first mode, notification of the equipment to be controlled is sent from the application processing unit to the communication control unit , and the communication control unit controls communication route to the equipment to be controlled, and in the second mode, the application processing unit decides the communication route to the equipment to be controlled, and notification of the communication route is sent from the application processing unit to the communication control unit . an application processing unit processing an application to control the equipment , and a communication control unit managing route information by each of the equipment according to a prescribed communication protocol positioned in a lower layer than the application; characterised in that when the number of the equipment included in the radio network is equal to or less than a threshold determined in accordance with an upper limit number of the route information capable of being managed by the communication control unit , the application processing unit selects a first mode, when the number of the equipment included in the radio network is more than the threshold, the application processing unit selects a second mode, in the first mode, notification of the equipment to be controlled is sent from the application processing unit to the communication control unit , and the communication control unit controls communication route to the equipment to be controlled, and in the second mode, the application processing unit decides the communication route to the equipment to be controlled, and notification of the communication route is sent from the application processing unit to the communication control unit .
A multi-function tool , comprising: a first handle and a second handle pivotable between an open position and a closed position; a jaw assembly slidably coupled to the first and second handles , wherein the jaw assembly is configured to move between a stowed position within the handles and a deployed position extending from the handles ; and a driver having a stowed position and a deployed position; wherein with the two handles in the closed position and the driver in the stowed position, the driver is not in an on-center position relative to the two handles ; the multi-function tool being characterized in that wherein with the two handles in the closed position and the driver in the deployed position, the driver is in an on-center position relative to the two handles ; and the driver is pivotally coupled to the first handle and configured to pivot between the stored position either within or alongside the first handle and the deployed position extending from the first handle ; and the driver comprises a curved shaft and an exchangeable bit . a first handle and a second handle pivotable between an open position and a closed position; a jaw assembly slidably coupled to the first and second handles , wherein the jaw assembly is configured to move between a stowed position within the handles and a deployed position extending from the handles ; and a driver having a stowed position and a deployed position; wherein with the two handles in the closed position and the driver in the stowed position, the driver is not in an on-center position relative to the two handles ; the multi-function tool being characterized in that wherein with the two handles in the closed position and the driver in the deployed position, the driver is in an on-center position relative to the two handles ; and the driver is pivotally coupled to the first handle and configured to pivot between the stored position either within or alongside the first handle and the deployed position extending from the first handle ; and the driver comprises a curved shaft and an exchangeable bit .
A method of calculating an exposure time for disinfecting a room using an ultraviolet disinfecting apparatus, the method comprising the steps of: measuring distances by: a) using a spatial sensor on the ultraviolet disinfecting apparatus, to perform a first scan of a boundary surface of the room, to measure a first set of distances from the sensor to the boundary surface; characterized by : b) adjusting the height of the spatial sensor; c) using the spatial sensor to perform a second scan of the boundary surface of the room, to measure a second set of distances from the adjusted sensor to the boundary surface; d) further adjusting the orientation of the spatial sensor; and e) using the spatial sensor to perform a third scan of the boundary surface of the room, to measure a third set of distances from the further-adjusted sensor to the boundary surface; and subsequently calculating the exposure time in dependence on the sets of distances. measuring distances by: a) using a spatial sensor on the ultraviolet disinfecting apparatus, to perform a first scan of a boundary surface of the room, to measure a first set of distances from the sensor to the boundary surface; characterized by : b) adjusting the height of the spatial sensor; c) using the spatial sensor to perform a second scan of the boundary surface of the room, to measure a second set of distances from the adjusted sensor to the boundary surface; d) further adjusting the orientation of the spatial sensor; and e) using the spatial sensor to perform a third scan of the boundary surface of the room, to measure a third set of distances from the further-adjusted sensor to the boundary surface; a) using a spatial sensor on the ultraviolet disinfecting apparatus, to perform a first scan of a boundary surface of the room, to measure a first set of distances from the sensor to the boundary surface; characterized by : b) adjusting the height of the spatial sensor; c) using the spatial sensor to perform a second scan of the boundary surface of the room, to measure a second set of distances from the adjusted sensor to the boundary surface; d) further adjusting the orientation of the spatial sensor; and e) using the spatial sensor to perform a third scan of the boundary surface of the room, to measure a third set of distances from the further-adjusted sensor to the boundary surface; and subsequently calculating the exposure time in dependence on the sets of distances.
A cooling arrangement for an at least two-stage compressed air generator , comprising - a liquid-cooled intercooler , which is arranged between a first and a second compressor stage , in order to cool the precompressed air discharged from the first compressor stage before it enters the second compressor stage ; - a liquid-cooled aftercooler , which is arranged after the second compressor stage , in order to cool the air compressed by said second compressor stage ; - a liquid-cooled subassembly cooler , which absorbs heat from further subassemblies of the compressed air generator ; characterised in that the cooling arrangement comprises a coolant circuit, which has a main cooler , the cold side of which feeds a cooled coolant having a low temperature to the respective coolant inlet of the intercooler , of the aftercooler and of the subassembly cooler in parallel, and the hot side of which receives the heated coolant having a high temperature which exits in parallel at the respective coolant outlet of the intercooler and of the aftercooler ; wherein the coolant outlet of the subassembly cooler is connected to a feed inlet of the intercooler and/or the aftercooler , wherein the feed inlet is arranged between the coolant inlet and the coolant outlet, at a point at which the intermediate temperature of the coolant in the intercooler or in the aftercooler corresponds to the exit temperature of the coolant at the subassembly cooler ±20%. - a liquid-cooled intercooler , which is arranged between a first and a second compressor stage , in order to cool the precompressed air discharged from the first compressor stage before it enters the second compressor stage ; - a liquid-cooled aftercooler , which is arranged after the second compressor stage , in order to cool the air compressed by said second compressor stage ; - a liquid-cooled subassembly cooler , which absorbs heat from further subassemblies of the compressed air generator ; characterised in that the cooling arrangement comprises a coolant circuit, which has a main cooler , the cold side of which feeds a cooled coolant having a low temperature to the respective coolant inlet of the intercooler , of the aftercooler and of the subassembly cooler in parallel, and the hot side of which receives the heated coolant having a high temperature which exits in parallel at the respective coolant outlet of the intercooler and of the aftercooler ; wherein the coolant outlet of the subassembly cooler is connected to a feed inlet of the intercooler and/or the aftercooler , wherein the feed inlet is arranged between the coolant inlet and the coolant outlet, at a point at which the intermediate temperature of the coolant in the intercooler or in the aftercooler corresponds to the exit temperature of the coolant at the subassembly cooler ±20%.
A wireless blow dryer comprising: an air duct ; a handle connected to the air duct ; an energy storage assembly ; a fan assembly comprising a motor arranged in the handle and a fan blade connected to the motor ; a main control board electrically coupled to the energy storage assembly and the motor ; and an air inlet channel and an air outlet channel communicating with each other; wherein the air duct is provided with the air outlet channel ; and the handle is provided with the air inlet channel ; wherein the energy storage assembly comprises at least one energy storage module arranged in the air outlet channel ; the energy storage assembly is configured to supply power to the motor and the main control board ; and the main control board is configured to control the motor to drive the fan blade to rotate, so as to cause airflow to enter the air inlet channel and exit the air duct through the air outlet channel . an air duct ; a handle connected to the air duct ; an energy storage assembly ; a fan assembly comprising a motor arranged in the handle and a fan blade connected to the motor ; a main control board electrically coupled to the energy storage assembly and the motor ; and an air inlet channel and an air outlet channel communicating with each other; wherein the air duct is provided with the air outlet channel ; and the handle is provided with the air inlet channel ; wherein the energy storage assembly comprises at least one energy storage module arranged in the air outlet channel ; the energy storage assembly is configured to supply power to the motor and the main control board ; and the main control board is configured to control the motor to drive the fan blade to rotate, so as to cause airflow to enter the air inlet channel and exit the air duct through the air outlet channel .