mhurhangee/patent-ind-claim-en huggingface dataset:
A cavity filter comprising: a resonant elements comprising a coupling block ; a first casing comprising the resonant elements therein; a second casing disposed to cover one surface of the first casing ; a terminal unit passing through the first casing such that one end thereof protrudes to be connectable to an electrode pad of an external member and the other end thereof is electrically connected to the coupling block of the resonant element provided in proximity to the second casing , the terminal unit being electrically insulated from the first casing ; characterized by an assembly unit provided on either one side or both sides of the first casing in a longitudinal direction thereof and formed with a terminal insertion hole into which the terminal unit is inserted and installed, wherein the assembly unit protrudes outward from a lower surface of the first casing . a resonant elements comprising a coupling block ; a first casing comprising the resonant elements therein; a second casing disposed to cover one surface of the first casing ; a terminal unit passing through the first casing such that one end thereof protrudes to be connectable to an electrode pad of an external member and the other end thereof is electrically connected to the coupling block of the resonant element provided in proximity to the second casing , the terminal unit being electrically insulated from the first casing ; an assembly unit provided on either one side or both sides of the first casing in a longitudinal direction thereof and formed with a terminal insertion hole into which the terminal unit is inserted and installed, wherein the assembly unit protrudes outward from a lower surface of the first casing .
A heating chamber for an aerosol generation device , the heating chamber comprising: an open first end ; a chamber side wall ; and a base at a second end of the chamber side wall opposite the open first end ; wherein the base comprises a platform extending from a portion of the base towards the open first end from an interior surface of the base , the platform is formed from a deformation of the base , and the heating chamber comprises a heater extending around the chamber side wall and not around the base . an open first end ; a chamber side wall ; and a base at a second end of the chamber side wall opposite the open first end ; wherein the base comprises a platform extending from a portion of the base towards the open first end from an interior surface of the base , the platform is formed from a deformation of the base , and the heating chamber comprises a heater extending around the chamber side wall and not around the base .
A slot die having a slit-shaped discharge port in which a length of a discharge passage in a width direction based on a cross section of a discharge port is greater than a thickness perpendicular to the width direction, the slot die comprising: a lower body configured to form a lower surface of the discharge passage and has an internal space recessed in a concave shape to accommodate the slurry; an upper body configured to be disposed opposite the lower body to determine the thickness of the discharge passage and to have a slit-shaped through path formed in the width direction; a stripe shim configured to be positioned on the discharge passage of the slot die and to divide the discharge port in the width direction; a cover shim configured to be located on the stripe shim and to include a through hole formed in a central part; characterised by a choke bar configured to open and close a part of the discharge passage of the slot die while moving in a direction perpendicular to the discharge direction through the through path of the upper body , wherein a length of the through hole formed in the cover shim in a width direction is the same as a length of the through path formed in the upper body in a width direction, and wherein a discharge direction length of the through hole formed in the cover shim is greater than or equal to a sum of a discharge direction length of the through path and a discharge direction length of the internal space . a lower body configured to form a lower surface of the discharge passage and has an internal space recessed in a concave shape to accommodate the slurry; an upper body configured to be disposed opposite the lower body to determine the thickness of the discharge passage and to have a slit-shaped through path formed in the width direction; a stripe shim configured to be positioned on the discharge passage of the slot die and to divide the discharge port in the width direction; a cover shim configured to be located on the stripe shim and to include a through hole formed in a central part; a choke bar configured to open and close a part of the discharge passage of the slot die while moving in a direction perpendicular to the discharge direction through the through path of the upper body , wherein a length of the through hole formed in the cover shim in a width direction is the same as a length of the through path formed in the upper body in a width direction, and wherein a discharge direction length of the through hole formed in the cover shim is greater than or equal to a sum of a discharge direction length of the through path and a discharge direction length of the internal space .
A remote golf club swinging method comprising: receiving in a robotic golf club swing fixture from a remote operator over a computer communications network a set of swing parameters defining different aspects of a golf club swing in response to the remote operator setting the set of swing parameters in a graphical user interface (GUI) in a web browser on a computing device remotely disposed from the robotic golf club swing fixture; directing a plurality of robotic arms of the robotic golf club swing fixture to swing a coupled golf club resulting in the remote operator remotely causing the robotic golf club swing fixture to swing the coupled golf club according to the set of swing parameters set via the GUI, wherein directing the plurality of robotic arms comprises formatting the received set of swing parameters to a data string; sensing a result of the swinging of the coupled golf club; and, transmitting data derived from the sensed result to the remote operator for display in the web browser on the computing device over the computer communications network, characterized in that the set of swing parameters includes direction and shot shape, and in that transmitting the data derived from the sensed result to the remote operator for display in the web browser on the computing device over the computer communications network comprises: transmitting the data derived from the sensed result to a golf simulator comprising program code executed by a processor; and, displaying, by the golf simulator, to the remote operator, a calculated theoretical movement of the golf ball based upon the data derived from the sensed result. receiving in a robotic golf club swing fixture from a remote operator over a computer communications network a set of swing parameters defining different aspects of a golf club swing in response to the remote operator setting the set of swing parameters in a graphical user interface (GUI) in a web browser on a computing device remotely disposed from the robotic golf club swing fixture; directing a plurality of robotic arms of the robotic golf club swing fixture to swing a coupled golf club resulting in the remote operator remotely causing the robotic golf club swing fixture to swing the coupled golf club according to the set of swing parameters set via the GUI, wherein directing the plurality of robotic arms comprises formatting the received set of swing parameters to a data string; sensing a result of the swinging of the coupled golf club; and, transmitting data derived from the sensed result to the remote operator for display in the web browser on the computing device over the computer communications network, transmitting the data derived from the sensed result to a golf simulator comprising program code executed by a processor; and, displaying, by the golf simulator, to the remote operator, a calculated theoretical movement of the golf ball based upon the data derived from the sensed result.
Operating device for mechanically controlling a membrane pump device for conveying fluids, in particular medical liquids for blood treatment, having a base body which comprises a mounting face for a membrane pump device and through which a control fluid line passes which extends from a control fluid port to a control fluid opening which opens at the mounting face , and having an adjustment device which comprises a working fluid valve which is designed to influence a cross section of a working fluid line which passes through the base body , and wherein the control fluid valve and the working fluid valve are electrically connected to a control device which is designed to electrically control the control fluid valve and the working fluid valve , wherein a control fluid valve is arranged in the control fluid line , which control fluid valve is designed to influence a cross section of the control fluid line , and characterized in that the adjustment device comprises a fluid actuator arranged on the mounting face for providing an adjustment movement.
A Method for the prognosis of acute coronary syndrome patients (ACS) undergoing percutaneous coronary intervention (PCI), the method comprising; a) Performing a platelet function test on a sample that has been taken from said patient before PCI; b) Determining the level of H-FABP in a sample that has been taken from said patient before PCI; c) Providing a prognosis on the basis of the results of steps a) and b) wherein those patients with high platelet activity as determined in step a) in combination with elevated H-FABP as determined in step b) are at greater risk of future adverse events. a) Performing a platelet function test on a sample that has been taken from said patient before PCI; b) Determining the level of H-FABP in a sample that has been taken from said patient before PCI; c) Providing a prognosis on the basis of the results of steps a) and b) wherein those patients with high platelet activity as determined in step a) in combination with elevated H-FABP as determined in step b) are at greater risk of future adverse events.
A composition for use in treating one or more inflammatory and/or angiogenic eye diseases and disorders comprising a) dendrimer nanoparticles, and b) a biologically active agent, wherein the dendrimer nanoparticles comprise hydroxyl-terminated poly(amidoamine) (PAMAM) dendrimers, wherein the dendrimer nanoparticles are covalently linked to the biologically active agent, and wherein the composition is administered systemically in an amount effective to suppress or inhibit the one or more eye diseases and disorders.
An inkjet ink and primer fluid set comprising: a) an aqueous primer composition comprising a multivalent cation salt and a polymeric binder, wherein said composition forms a coating with a dry thickness of from 0.4 to 5.0 micron upon application onto a non-porous plastic substrate, and said coating results in a haze increase of less than 10 on said substrate, said multivalent cation salt is present at an amount less than 20 wt%, based on the total weight of the primer composition, and said polymeric binder is not soluble in water, is stable in the presence of said multivalent cation, and is selected from the group consisting of urethane polymer, acrylic polymer and vinyl polymer; and (b) aqueous inkjet inks, wherein at least one of the inks comprising a first pigment dispersion and a second pigment dispersion, and wherein said first pigment dispersion forms an aggregation with said aqueous primer composition, and said second pigment dispersion does not form an aggregation with said aqueous primer composition. a) an aqueous primer composition comprising a multivalent cation salt and a polymeric binder, wherein said composition forms a coating with a dry thickness of from 0.4 to 5.0 micron upon application onto a non-porous plastic substrate, and said coating results in a haze increase of less than 10 on said substrate, said multivalent cation salt is present at an amount less than 20 wt%, based on the total weight of the primer composition, and said polymeric binder is not soluble in water, is stable in the presence of said multivalent cation, and is selected from the group consisting of urethane polymer, acrylic polymer and vinyl polymer; and (b) aqueous inkjet inks, wherein at least one of the inks comprising a first pigment dispersion and a second pigment dispersion, and wherein said first pigment dispersion forms an aggregation with said aqueous primer composition, and said second pigment dispersion does not form an aggregation with said aqueous primer composition.
Method for monitoring a predefined region for a control facility in a cleaning robot, which has a first sensor (D1) for thermal radiation and at least one further sensor (D2, ..., DN), wherein the cleaning robot comprises the first sensor (D1) for thermal radiation and at least the further sensor (D2, ..., DN), the steps comprising: - simultaneously recording (S1) sensor signals of the first sensor (D1) for thermal radiation and of the at least one further sensor (D2, ..., DN) at an observation point at a predetermined temporal interval; - converting (S2) the recorded (S1) sensor signals into sensor data that can be processed by the control facility; - storing (S3) the sensor data of the respective sensor in at least one data storage unit of the control facility; - ascertaining (S4) a deviation between at least two temporally different items of sensor data of the respective sensor (D1, D2, ..., DN); - comparing (S5) the ascertained (S4) deviation of the data of the respective sensor (D1, D2, ..., DN) with a predefined threshold value of the respective sensor (D1, D2, ..., DN); - providing (S6) and/or outputting a result of the comparison (S5) when a predefined threshold value of the respective sensor (D1, D2, ..., DN) is exceeded (S7); - wherein the cleaning robot brings itself to at least one further observation point at a fixed location when only one predefined threshold value of the respective sensor (D1, D2, ..., DN) of the cleaning robot is exceeded (S7); and - outputting (S8) a warning signal when the threshold value of the first sensor (D1) for thermal radiation of the cleaning robot and a threshold value of the at least one further sensor (D2, ..., DN) of the cleaning robot are simultaneously exceeded (S7). - simultaneously recording (S1) sensor signals of the first sensor (D1) for thermal radiation and of the at least one further sensor (D2, ..., DN) at an observation point at a predetermined temporal interval; - converting (S2) the recorded (S1) sensor signals into sensor data that can be processed by the control facility; - storing (S3) the sensor data of the respective sensor in at least one data storage unit of the control facility; - ascertaining (S4) a deviation between at least two temporally different items of sensor data of the respective sensor (D1, D2, ..., DN); - comparing (S5) the ascertained (S4) deviation of the data of the respective sensor (D1, D2, ..., DN) with a predefined threshold value of the respective sensor (D1, D2, ..., DN); - providing (S6) and/or outputting a result of the comparison (S5) when a predefined threshold value of the respective sensor (D1, D2, ..., DN) is exceeded (S7); - wherein the cleaning robot brings itself to at least one further observation point at a fixed location when only one predefined threshold value of the respective sensor (D1, D2, ..., DN) of the cleaning robot is exceeded (S7); and - outputting (S8) a warning signal when the threshold value of the first sensor (D1) for thermal radiation of the cleaning robot and a threshold value of the at least one further sensor (D2, ..., DN) of the cleaning robot are simultaneously exceeded (S7).
A device for temporarily increasing power in order to increase the power from at least one first turbine engine and from at least one second turbine engine , said device comprising: - a tank of coolant liquid; - a first injection circuit connected to said tank and leading to at least one injection nozzle configured to be installed upstream from the first turbine engine ; - a second injection circuit connected to said tank and leading to at least one injection nozzle configured to be installed upstream from the second turbine engine ; - each of the first and second injection circuits including at least one first valve and at least one second valve arranged upstream from said at least one first valve ; the device being characterized in that it comprises - a bridge pipe connecting together the first injection circuit and the second injection circuit upstream from their respective first valves and downstream from their respective second valves . - a tank of coolant liquid; - a first injection circuit connected to said tank and leading to at least one injection nozzle configured to be installed upstream from the first turbine engine ; - a second injection circuit connected to said tank and leading to at least one injection nozzle configured to be installed upstream from the second turbine engine ; - each of the first and second injection circuits including at least one first valve and at least one second valve arranged upstream from said at least one first valve ; the device being characterized in that it comprises - a bridge pipe connecting together the first injection circuit and the second injection circuit upstream from their respective first valves and downstream from their respective second valves .
A bracket for an engine hoist , the bracket comprising: a first side portion including a first plurality of linkage connection points ; a second side portion including a second plurality of linkage connection points ; a flange extending along and connecting the first side portion and the second side portion ; characterized by a securing member including: a flange receiving portion having a slot configured to receive the flange ; and a U-shaped receiving portion having opposing legs that define a central cavity in which an elongate member of the engine hoist is receivable, each of the legs having a slot that receives one of the first or second side portions . a first side portion including a first plurality of linkage connection points ; a second side portion including a second plurality of linkage connection points ; a flange extending along and connecting the first side portion and the second side portion ; characterized by a securing member including: a flange receiving portion having a slot configured to receive the flange ; and a U-shaped receiving portion having opposing legs that define a central cavity in which an elongate member of the engine hoist is receivable, each of the legs having a slot that receives one of the first or second side portions . a flange receiving portion having a slot configured to receive the flange ; and a U-shaped receiving portion having opposing legs that define a central cavity in which an elongate member of the engine hoist is receivable, each of the legs having a slot that receives one of the first or second side portions .
An assembly for an aircraft propulsion system , comprising: a cowl door movable between a closed position and an open position; the cowl door including a structural panel and a mount ; the structural panel including an inner skin , an outer skin and a cellular core connected to and arranged between the inner skin and the outer skin ; and the mount comprising a base and a coupler , the base connected to and arranged between the inner skin and the outer skin , wherein: the coupler projects out from the base and radially inward from the base away from the inner skin ; and the coupler being positioned at an axial end of the cowl door , characterized in that : the coupler comprises an arcuate V-blade; and the cellular core comprises a first cellular core , and the structural panel further includes a second cellular core connected to and arranged between the inner skin and the outer skin , and the first cellular core is arranged between and is abutted against the second cellular core and the mount . a cowl door movable between a closed position and an open position; the cowl door including a structural panel and a mount ; the structural panel including an inner skin , an outer skin and a cellular core connected to and arranged between the inner skin and the outer skin ; and the mount comprising a base and a coupler , the base connected to and arranged between the inner skin and the outer skin , the coupler projects out from the base and radially inward from the base away from the inner skin ; and the coupler being positioned at an axial end of the cowl door , the coupler comprises an arcuate V-blade; and the cellular core comprises a first cellular core , and the structural panel further includes a second cellular core connected to and arranged between the inner skin and the outer skin , and the first cellular core is arranged between and is abutted against the second cellular core and the mount .
A comfort device for a user, in particular configured to equip a public transportation vehicle, for example a rail vehicle, the comfort device comprising a folding tray , articulated around a first pivot link between a folded position and a usage position, the first pivot link being formed by disengageable freewheels , characterized in that the folding tray further comprises a support embedded on the folding tray and articulated around a second pivot link between a retracted position and at least one inclined position when the tray is in the folded position, the support forming a desk for an accessory of the user, the folding tray in the usage position extending in a longitudinal direction (X) between an end connected to the first pivot link and a free end opposite the connected end , wherein the second pivot link is articulated about a transverse axis of rotation (A2) in a transverse direction (Y) perpendicular to the longitudinal direction (X), the axis of rotation (A2) extending along the free end of the folding tray , and wherein the folding tray comprises an upper face configured to receive an accessory of the user and a lower face opposite the upper face , and wherein the embedded support in the retracted position extends between an end connected to the second pivot link and a free end opposite the connected end in a vertical direction (Z) perpendicular to the longitudinal (X) and transverse (Y) directions on the side of the lower face of the tray .