mhurhangee/ep-ind-claims huggingface dataset:
A method of manufacture of fillets of plastic for aircraft assemblies or the like, said fillets having a pre-determined profile for filling a cavity of a structural element, the fillets being formed using a forming means of a forming device, said method further comprising the steps of: - applying at least one blank of a base material of plastic between two opposed press beds of the forming means and at least one of said press beds comprises at least two elongated grooves which are adjacent to each other; - moving at least one press bed towards the other press bed, until the press beds are in position for completed compression of the fillets, wherein said grooves for forming of fillets generate fillets in correspondence with said pre-determined profile, the compressing step, the press beds being in position for completed compression of the fillets, also includes mechanical separation of the fillets from each other; - separating the press beds from each other for releasing the formed fillets; - removing the formed fillets from the forming means, and; - applying the formed fillets in the cavity. - applying at least one blank of a base material of plastic between two opposed press beds of the forming means and at least one of said press beds comprises at least two elongated grooves which are adjacent to each other; - moving at least one press bed towards the other press bed, until the press beds are in position for completed compression of the fillets, wherein said grooves for forming of fillets generate fillets in correspondence with said pre-determined profile, the compressing step, the press beds being in position for completed compression of the fillets, also includes mechanical separation of the fillets from each other; - separating the press beds from each other for releasing the formed fillets; - removing the formed fillets from the forming means, and; - applying the formed fillets in the cavity.
A refrigerator comprising: a smell sensor for detecting smell in the refrigerator; a deodorizer (16,130) for adsorbing, sterilizing, and deodorizing air in the refrigerator; and a controller for calculating detected values of detected signals detected by the smell sensor, changing a deodorizing mode according to the detected smell, and controlling the deodorizer (16, 130), wherein upon determining that intensity of the smell is increased the controller changes the deodorizing mode to a power mode from a normal automatic mode and controls the deodorizer to repeatedly operate for a set time period so as to remove smell in the refrigerator, characterized in that the controller is configured to calculate an average of the detected values during a recent first time period as a current value and to calculate an average of the detected values during a previous second time period as a reference value and to determine change in smell according to a ratio of the current value and the reference value, and wherein to calculate the reference value the controller is configured to calculate the average of the detected values during the previous second time period except for the recent first time period that are used to calculate the current value. a smell sensor for detecting smell in the refrigerator; a deodorizer (16,130) for adsorbing, sterilizing, and deodorizing air in the refrigerator; and a controller for calculating detected values of detected signals detected by the smell sensor, changing a deodorizing mode according to the detected smell, and controlling the deodorizer (16, 130), wherein upon determining that intensity of the smell is increased the controller changes the deodorizing mode to a power mode from a normal automatic mode and controls the deodorizer to repeatedly operate for a set time period so as to remove smell in the refrigerator, characterized in that the controller is configured to calculate an average of the detected values during a recent first time period as a current value and to calculate an average of the detected values during a previous second time period as a reference value and to determine change in smell according to a ratio of the current value and the reference value, and wherein to calculate the reference value the controller is configured to calculate the average of the detected values during the previous second time period except for the recent first time period that are used to calculate the current value.
Method for generating energy from hydrogen-rich industrial exhaust gas, particularly coming from semiconductor production facilities and/or semiconductor processing facilities, which escapes at an exhaust gas outlet of an exhaust system, in which the exhaust gas is passed through a electricity generation device having at least one compressor and one or more fuel cells, in which the exhaust gas is compressed and electricity is generated from at least a portion of the hydrogen contained in the exhaust gas, wherein the compressor is connected to the exhaust gas outlet of the exhaust system, characterized in that an inlet pressure of the compressor is regulated to a setpoint value.
A memory device, comprising: a plurality of variable resistance memory cell pillars, wherein adjacent memory cell pillars are separated by a partially filled gap (42, 44, 144a, 144b, 60) that includes a buried void (62, 66, 166a, 166b, 66a, 66b), wherein the adjacent memory cell pillars include storage material elements that are at least partially interposed by the buried void (62, 66, 166a, 166b, 66a, 66b); and characterised in that: the gap (42, 44, 144a, 144b, 60) comprises an unfilled isolation gap above a seal region formed in the gap (42, 44, 144a, 144b, 60) above the buried void (62, 66, 166a, 166b, 66a, 66b), the gap (42, 44, 144a, 144b, 60) comprises a first gap-seal dielectric (54, 148a, 48a) having a first length extending in a first direction and a second gap-seal dielectric (48, 148b, 48b) different from the first gap-seal dielectric (54, 148a, 48a) having a second length extending in a second direction different from the first direction. a plurality of variable resistance memory cell pillars, wherein adjacent memory cell pillars are separated by a partially filled gap (42, 44, 144a, 144b, 60) that includes a buried void (62, 66, 166a, 166b, 66a, 66b), wherein the adjacent memory cell pillars include storage material elements that are at least partially interposed by the buried void (62, 66, 166a, 166b, 66a, 66b); and characterised in that: the gap (42, 44, 144a, 144b, 60) comprises an unfilled isolation gap above a seal region formed in the gap (42, 44, 144a, 144b, 60) above the buried void (62, 66, 166a, 166b, 66a, 66b), the gap (42, 44, 144a, 144b, 60) comprises a first gap-seal dielectric (54, 148a, 48a) having a first length extending in a first direction and a second gap-seal dielectric (48, 148b, 48b) different from the first gap-seal dielectric (54, 148a, 48a) having a second length extending in a second direction different from the first direction. the gap (42, 44, 144a, 144b, 60) comprises an unfilled isolation gap above a seal region formed in the gap (42, 44, 144a, 144b, 60) above the buried void (62, 66, 166a, 166b, 66a, 66b), the gap (42, 44, 144a, 144b, 60) comprises a first gap-seal dielectric (54, 148a, 48a) having a first length extending in a first direction and a second gap-seal dielectric (48, 148b, 48b) different from the first gap-seal dielectric (54, 148a, 48a) having a second length extending in a second direction different from the first direction.
A staged expansion vertebra retaining device, wherein the staged expansion vertebra retaining device comprises a main body and a screw inserted into the main body, a distal end of the screw is provided with a push block, the main body has a transverse slot extending backward from a front end thereof to form at least two movable support units relative to one side of the push block, each movable support unit is split by a groove to form at least two movable support surfaces (141, 142) which are able to be expanded in a staged manner by the push block, so that the movable support units are expanded at an angle to hold two adjacent vertebral bodies in place, wherein an open end of the transverse slot is formed with an enlarged portion for the push block to be transversely disposed and screwed to the distal end of the screw, characterized in that the at least two movable support surfaces (141, 142) comprise a movable support surface which is an innermost movable support surface and a frame-shaped moveable support surface which is an outermost movable support surface, and the inner surfaces of the movable support surfaces (141, 142) have at least two guide surfaces (1411, 1421) connecting the transverse slot and the enlarged portion and spaced at an interval for guiding the push block, by bringing the push block to move inward the first guide surface is pushed so that the innermost movable support surface is first expanded at an appropriate angle and when the push block is translated to move inward until the guide surface of the outermost movable support surface, the movable support surfaces (141, 142) are simultaneously expanded outward by the push block.
Procedure for obtaining a metallic effect on ceramic bases by ink jet printing, of the type used in the manufacture of tiles and other ceramic items, characterized in that it uses, separately, a glaze with part of the oxides needed to obtain the metallic effect, including Si and Al, and a metallic ink with the other part of the oxides required, the metallic ink consisting essentially of iron compounds being oxides or salts and combined with a glaze consisting of P - Si - Al - Li oxides and optionally oxides of Na, K, Mg, Ca, or the metallic ink consisting essentially of Fe - P oxide pigments and combined with a glaze consisting of Si - Al - Li oxides and optionally oxides of Na, K, Mg, Ca, or the metallic ink consisting essentially of Fe - P - Li oxide pigments and combined with a glaze consisting of Si - Al oxides and optionally oxides of Li, Na, K, Mg, Ca, the procedure comprising carrying out a first phase of application of the glaze on a ceramic base, wherein the glaze is white and has a matt or gloss finish, continuing with a second phase of ink jet printing of the metallic ink on the coat previously deposited on the ceramic base and causing a reaction between the glaze and the overlaid metallic ink that produces the metallic effect, finishing off with a third phase of firing.
A process for controlling a folding box gluing machine with a downstream device (3, 9) for packing folding boxes in containers, in particular in covering boxes, comprising the following steps: a) producing folding boxes in a folding box gluing machine, b) transporting the folding boxes via transport elements (4, 9) of a packing device in a stream of boxes, c) while monitoring the layout printed on the folding box, i.e. the printed image of each transported folding box in the device for packing by means of a detection device, which is particularly embodied as a sensor or a camera, and d) then automatically packing the folding boxes in containers, wherein, when a change of the layout is detected in step c), the stream of boxes is separated in step d) and a new container is provided for the folding boxes having the changed layout. a) producing folding boxes in a folding box gluing machine, b) transporting the folding boxes via transport elements (4, 9) of a packing device in a stream of boxes, c) while monitoring the layout printed on the folding box, i.e. the printed image of each transported folding box in the device for packing by means of a detection device, which is particularly embodied as a sensor or a camera, and d) then automatically packing the folding boxes in containers,
An electric vehicle cabin heating system, the electric vehicle cabin heating system is an air conditioning and heating system, comprising: a first refrigerant circuit and a second refrigerant circuit that are connected in parallel, the first refrigerant circuit and the second refrigerant circuit each comprise: a gas-liquid separator and a compressor that are connected in series; wherein, the first refrigerant circuit further comprises: a first expansion unit; the second refrigerant circuit further comprises: a second expansion unit and a condenser; the first expansion unit is connected to the second expansion unit and the condenser in parallel; characterised in that the second expansion unit comprises a second electronic expansion valve and a third electronic expansion valve, the third electronic expansion valve is arranged upstream of the condenser, and the second electronic expansion valve is arranged downstream of the condenser; and the electric vehicle cabin heating system is configured as a refrigerant in the second refrigerant circuit undergoes pressure regulation via the third electronic expansion valve and then enters the condenser to release heat for heating a cabin, and after the refrigerant released heat undergoing throttling via the second electronic expansion valve, it converges with the refrigerant which undergoes throttling and pressure reduction via the first expansion unit in the first refrigerant circuit in the gas-liquid separator, the converging refrigerant enters the compressor for cycling. wherein, the first refrigerant circuit further comprises: a first expansion unit; the second refrigerant circuit further comprises: a second expansion unit and a condenser; the first expansion unit is connected to the second expansion unit and the condenser in parallel; characterised in that the second expansion unit comprises a second electronic expansion valve and a third electronic expansion valve, the third electronic expansion valve is arranged upstream of the condenser, and the second electronic expansion valve is arranged downstream of the condenser; and the electric vehicle cabin heating system is configured as a refrigerant in the second refrigerant circuit undergoes pressure regulation via the third electronic expansion valve and then enters the condenser to release heat for heating a cabin, and after the refrigerant released heat undergoing throttling via the second electronic expansion valve, it converges with the refrigerant which undergoes throttling and pressure reduction via the first expansion unit in the first refrigerant circuit in the gas-liquid separator, the converging refrigerant enters the compressor for cycling.
A method for preparing a target substance in particulate form, the method comprising introducing into a particle formation vessel, through separate first and second fluid inlet means respectively, (a) a solution or suspension of the target substance in a fluid vehicle i.e. the "target solution/suspension", and (b) a compressed fluid anti-solvent for the substance, and allowing the anti-solvent fluid to extract the vehicle from the target solution/suspension so as to form particles of the target substance, wherein the anti-solvent fluid has a sonic, near-sonic or supersonic velocity as it enters the particle formation vessel, and wherein the anti-solvent and the target solution/suspension enter the particle formation vessel at different locations and meet downstream, in the direction of anti-solvent flow, of the second fluid inlet means and the pressure drop as the anti-solvent fluid enters the particle formation vessel is from 170 to 250 bar.
A system for treatment of edema, comprising: a pump configured to be implanted in a body of a patient; an inflow tube fluidically coupled to an inflow port of the pump and configured to be implanted into the body of the patient so as to bring the inflow port into fluid communication with a lymphatic vessel of the patient by having an inflow opening of the inflow tube positioned to receive fluid from a right lymphatic duct or the thoracic duct; and an outflow tube fluidically coupled to an outflow port of the pump and configured to be implanted into the body of the patient so as to bring the outflow port into fluid communication with a vein in the body of the patient such that the pump is operative to pump fluid from the lymphatic vessel to the vein so as to facilitate removal of fluid from the lymphatic vessel and thereby facilitate higher lymphatic return by lowering outflow pressure at the lymphatic vessel; a controller configured to actuate the pump; and a pressure sensor configured to be implanted in the body the patient, the controller being configured to actuate the pump in response to a pressure measured by the pressure sensor to thereby regulate pressure at a junction of the right subclavian vein of the patient and the internal jugular vein of the patient or the junction of the left subclavian vein of the patient and the internal jugular vein of the patient to a safe, non-edemic level within a range of 2 to 6 mmHg. a pump configured to be implanted in a body of a patient; an inflow tube fluidically coupled to an inflow port of the pump and configured to be implanted into the body of the patient so as to bring the inflow port into fluid communication with a lymphatic vessel of the patient by having an inflow opening of the inflow tube positioned to receive fluid from a right lymphatic duct or the thoracic duct; and an outflow tube fluidically coupled to an outflow port of the pump and configured to be implanted into the body of the patient so as to bring the outflow port into fluid communication with a vein in the body of the patient such that the pump is operative to pump fluid from the lymphatic vessel to the vein so as to facilitate removal of fluid from the lymphatic vessel and thereby facilitate higher lymphatic return by lowering outflow pressure at the lymphatic vessel; a controller configured to actuate the pump; and a pressure sensor configured to be implanted in the body the patient, the controller being configured to actuate the pump in response to a pressure measured by the pressure sensor to thereby regulate pressure at a junction of the right subclavian vein of the patient and the internal jugular vein of the patient or the junction of the left subclavian vein of the patient and the internal jugular vein of the patient to a safe, non-edemic level within a range of 2 to 6 mmHg.
A measuring cell for optically verifying the presence of a coating on a wire comprising - a cavity having an entrance orifice and exit orifice for guiding said wire through said cavity, said entrance orifice and exit orifice defining a reference axis (106, 706); - two or more sources (708, 708'); - two or more detectors (710, 710'); said sources for emitting light towards a central point on said reference axis (106, 706) said detectors (710, 710') for detecting light, wherein the number of sources and the number of detectors is even, said sources are placed in pair (708, 708'), pairwise opposite to said reference axis (106, 706) in source planes (S 1), said detectors (710, 710') are placed in pair, pairwise opposite to said reference axis (106, 706) in detector planes (D 1), said source planes (S 1) and said detector planes (D 1) comprising said reference axis (106, 706), wherein for each one source plane (S 1) there is a detector plane (D 1) orthogonal to said each one source plane (S 1), characterized in that said pair of detectors (710, 710') and said pair of sources (708, 708') being in a single plane perpendicular to said reference axis.. - a cavity having an entrance orifice and exit orifice for guiding said wire through said cavity, said entrance orifice and exit orifice defining a reference axis (106, 706); - two or more sources (708, 708'); - two or more detectors (710, 710'); said sources for emitting light towards a central point on said reference axis (106, 706) said detectors (710, 710') for detecting light, wherein the number of sources and the number of detectors is even, said sources are placed in pair (708, 708'), pairwise opposite to said reference axis (106, 706) in source planes (S 1), said detectors (710, 710') are placed in pair, pairwise opposite to said reference axis (106, 706) in detector planes (D 1), said source planes (S 1) and said detector planes (D 1) comprising said reference axis (106, 706), wherein for each one source plane (S 1) there is a detector plane (D 1) orthogonal to said each one source plane (S 1), characterized in that said pair of detectors (710, 710') and said pair of sources (708, 708') being in a single plane perpendicular to said reference axis..
A system for producing an electrophysiological map of a heart, the system comprising a processor (100, 152, 202, 328) configured to: reconstruct a three-dimensional model of the heart from a plurality of two-dimensional images, wherein a coordinate system of the three-dimensional model is registered with a medical positioning system coordinate system; for each of a plurality of target points within the heart, determine a target point location associated with the three-dimensional model and a respective target probe orientation at which a heart parameter value is to be measured; direct navigation of a probe of a catheter (162, 306) toward each target point; for each target point, determine if contact of the probe has been made with the wall of the heart; when contact of the probe is not determined to have been made with the wall of the heart, redirect navigation of the probe of the catheter (162, 306); for each target point, confirm that the probe of the catheter (162, 306) is located at the target point location by comparing a currently detected location of the probe with the respective target point location; for each target point, confirm that the probe is oriented at the probe orientation by comparing the currently detected orientation of the probe with the respective target probe orientation; for each target point, directly measure the heart parameter value with a heart parameter sensor; and produce the electrophysiological map. reconstruct a three-dimensional model of the heart from a plurality of two-dimensional images, wherein a coordinate system of the three-dimensional model is registered with a medical positioning system coordinate system; for each of a plurality of target points within the heart, determine a target point location associated with the three-dimensional model and a respective target probe orientation at which a heart parameter value is to be measured; direct navigation of a probe of a catheter (162, 306) toward each target point; for each target point, determine if contact of the probe has been made with the wall of the heart; when contact of the probe is not determined to have been made with the wall of the heart, redirect navigation of the probe of the catheter (162, 306); for each target point, confirm that the probe of the catheter (162, 306) is located at the target point location by comparing a currently detected location of the probe with the respective target point location; for each target point, confirm that the probe is oriented at the probe orientation by comparing the currently detected orientation of the probe with the respective target probe orientation; for each target point, directly measure the heart parameter value with a heart parameter sensor; and produce the electrophysiological map.