mhurhangee/ep-ind-claims huggingface dataset:
An elevator arrangement comprising a hoistway formed in a building; an elevator car vertically movable in the hoistway along one or more guide rails mounted to take lateral support from a hoistway wall; an elevator control system (100,101) for controlling movement of the elevator car; a sensing arrangement (4,5,6) connected with the elevator control system (100,101), the sensing arrangement (4,5,6) comprising a building-mounted sensing unit mounted on a stationary part of the building, said stationary part preferably being a hoistway wall or the hoistway ceiling; at least one sensing unit mounted on the elevator car to travel therewith, wherein the building-mounted sensing unit is a counterpart for a sensing unit mounted on the elevator car; and the elevator car is movable by the elevator control system (100,101) to a first position, which is a reference position, and to a second position to place a sensing unit mounted on the elevator car to be level with the building-mounted sensing unit for triggering interaction between them, the first and second position being vertically displaced; wherein the elevator control system (100,101) is configured to monitor vertical distance (d) between the first position and the second position by aid of the sensing arrangement (4,5,6), characterized in that the elevator control system (100,101) is configured to perform one or more actions if the prevailing distance (d) meets one or more criteria; wherein a criterion for one or more actions is that the prevailing distance (d) has reached a threshold. a hoistway formed in a building; an elevator car vertically movable in the hoistway along one or more guide rails mounted to take lateral support from a hoistway wall; an elevator control system (100,101) for controlling movement of the elevator car; a sensing arrangement (4,5,6) connected with the elevator control system (100,101), the sensing arrangement (4,5,6) comprising a building-mounted sensing unit mounted on a stationary part of the building, said stationary part preferably being a hoistway wall or the hoistway ceiling; at least one sensing unit mounted on the elevator car to travel therewith, wherein the building-mounted sensing unit is a counterpart for a sensing unit mounted on the elevator car; and the elevator car is movable by the elevator control system (100,101) to a first position, which is a reference position, and to a second position to place a sensing unit mounted on the elevator car to be level with the building-mounted sensing unit for triggering interaction between them, the first and second position being vertically displaced; wherein the elevator control system (100,101) is configured to monitor vertical distance (d) between the first position and the second position by aid of the sensing arrangement (4,5,6), characterized in that the elevator control system (100,101) is configured to perform one or more actions if the prevailing distance (d) meets one or more criteria; wherein a criterion for one or more actions is that the prevailing distance (d) has reached a threshold.
A system (300;400) for a gas turbine engine, comprising: a damper located in a cavity formed between first and second bases (322a,322b) that seat respective first and second airfoils, the damper having a first face and a second face wherein the first face has a first width and the second face has a second width, wherein the damper has a bridge section that joins the first face and the second face, and wherein a width of the bridge section is less than the first width associated with the first face and the second width associated with the second face, characterised in that an aspect ratio between the first face and the second face ensures that the damper is installed in the cavity in accordance with a predetermined orientation, wherein the predetermined orientation is relative to a forward reference direction or an aft reference direction, wherein the second width of the second face is different from the first width (W 1), and wherein the aspect ratio is based on a ratio of the first width (W 1) and the second width a damper located in a cavity formed between first and second bases (322a,322b) that seat respective first and second airfoils, the damper having a first face and a second face wherein the first face has a first width and the second face has a second width, wherein the damper has a bridge section that joins the first face and the second face, and wherein a width of the bridge section is less than the first width associated with the first face and the second width associated with the second face, characterised in that an aspect ratio between the first face and the second face ensures that the damper is installed in the cavity in accordance with a predetermined orientation, wherein the predetermined orientation is relative to a forward reference direction or an aft reference direction, wherein the second width of the second face is different from the first width (W 1), and wherein the aspect ratio is based on a ratio of the first width (W 1) and the second width
A patient interface for delivery of a flow of breathable gas to an entrance of a patient's airways including at least an entrance of a patient's nares, said patient interface comprising: a heat and moisture exchanger comprising a plurality of layers, each layer having a substantially planar top structure and a substantially planar base structure, and the layers being stacked into a predetermined three-dimensional shape, wherein each layer comprises a corrugated structure disposed between the top structure and the base structure and comprising a plurality of corrugations, the plurality of corrugations forming a plurality of channels (7012, 7022) to allow the flow of breathable gas along a surface of the corrugated structure for moisture exchange, wherein the corrugated structure retains moisture from a flow of expiratory gas and the retained moisture is provided to the flow of breathable gas for humidification, wherein at least one of the plurality of layers further comprises a moisture absorbent material, and wherein the predetermined three-dimensional shape comprises an inwardly curved portion to avoid contact with the patient's nose or mouth. a heat and moisture exchanger comprising a plurality of layers, each layer having a substantially planar top structure and a substantially planar base structure, and the layers being stacked into a predetermined three-dimensional shape, wherein each layer comprises a corrugated structure disposed between the top structure and the base structure and comprising a plurality of corrugations, the plurality of corrugations forming a plurality of channels (7012, 7022) to allow the flow of breathable gas along a surface of the corrugated structure for moisture exchange, wherein the corrugated structure retains moisture from a flow of expiratory gas and the retained moisture is provided to the flow of breathable gas for humidification, wherein at least one of the plurality of layers further comprises a moisture absorbent material, and wherein the predetermined three-dimensional shape comprises an inwardly curved portion to avoid contact with the patient's nose or mouth.
A method of transferring a sample into a mass spectrometer, the method comprising: capturing a sample on a collector wherein capturing the sample on the collector comprises wiping a surface of a target object with the collector; inserting the collector into a sample chamber coupled to the mass spectrometer and a vacuum pump (140, 342); isolating the sample chamber from the mass spectrometer; evacuating the isolated sample chamber using the vacuum pump (140, 342) to reduce an internal pressure of the sample chamber to a level less than atmospheric pressure; heating the collector to release the sample from the collector into the evacuated sample chamber; and introducing the sample into the mass spectrometer from the evacuated sample chamber. capturing a sample on a collector wherein capturing the sample on the collector comprises wiping a surface of a target object with the collector; inserting the collector into a sample chamber coupled to the mass spectrometer and a vacuum pump (140, 342); isolating the sample chamber from the mass spectrometer; evacuating the isolated sample chamber using the vacuum pump (140, 342) to reduce an internal pressure of the sample chamber to a level less than atmospheric pressure; heating the collector to release the sample from the collector into the evacuated sample chamber; and introducing the sample into the mass spectrometer from the evacuated sample chamber.
A device (1, 1a) for stacking a successive tape-like separator and a sheet electrode (P, N), the device being configured for sequentially stacking the separator and the sheet electrode while folding the successive separator in a zigzag manner to form a stacked body and the device comprising: a stacking stage which is configured to adsorb and hold a leading end of the tape-like separator, and on which the sheet electrode and the separator are configured to be sequentially stacked; separator reciprocating means being configured for reciprocating the tape-like separator above the stacking stage with the stacking stage being as a center; and a folding guide member (20, 21, 22) configured to come close or move apart relative to the stacking stage along the traversal direction to a moving direction of the separator so as to cover sides of both ends of the stacked sheet electrode, the sides being in the moving direction of the separator, and configured to guide the folding of the separator accompanied by a reciprocal movement of the separator at both ends of the sheet electrode, the folding guide member (20, 21, 22) being configured to protect an end portion of the sheet electrode (P, N) when the separator is folded. a stacking stage which is configured to adsorb and hold a leading end of the tape-like separator, and on which the sheet electrode and the separator are configured to be sequentially stacked; separator reciprocating means being configured for reciprocating the tape-like separator above the stacking stage with the stacking stage being as a center; and a folding guide member (20, 21, 22) configured to come close or move apart relative to the stacking stage along the traversal direction to a moving direction of the separator so as to cover sides of both ends of the stacked sheet electrode, the sides being in the moving direction of the separator, and configured to guide the folding of the separator accompanied by a reciprocal movement of the separator at both ends of the sheet electrode, the folding guide member (20, 21, 22) being configured to protect an end portion of the sheet electrode (P, N) when the separator is folded.
A blood purification device, comprising: a blood circuit for extracorporeally circulating blood of a patient; a blood purifier provided on the blood circuit; a gas-liquid separator being provided on the blood circuit on the downstream side of the blood purifier on a blood flow and separating air bubbles contained in inflowing blood; and a liquid level adjustment unit capable of adjusting a liquid level height in the gas-liquid separator, wherein the liquid level adjustment unit performs control so that the liquid level height during priming is higher than the liquid level height during treatment and, wherein the liquid level adjustment unit comprises a first liquid level detection sensor being provided at a first height position of the gas-liquid separator and being capable of detecting whether a gas is present at the first height position inside the gas-liquid separator, a liquid level adjustment mechanism capable that can adjust the liquid level height by introducing air into the gas-liquid separator or discharging air from the gas-liquid separator, characterized in that a liquid level control unit is configured to control the liquid level adjustment mechanism so that, during treatment, the gas is detected at the first height position and the liquid level height is lower than the first height position, and so that, during priming, the gas is not detected at the first height position and the liquid level height is not lower than the first height position. a blood circuit for extracorporeally circulating blood of a patient; a blood purifier provided on the blood circuit; a gas-liquid separator being provided on the blood circuit on the downstream side of the blood purifier on a blood flow and separating air bubbles contained in inflowing blood; and a liquid level adjustment unit capable of adjusting a liquid level height in the gas-liquid separator, wherein the liquid level adjustment unit performs control so that the liquid level height during priming is higher than the liquid level height during treatment and, wherein the liquid level adjustment unit comprises a first liquid level detection sensor being provided at a first height position of the gas-liquid separator and being capable of detecting whether a gas is present at the first height position inside the gas-liquid separator, a liquid level adjustment mechanism capable that can adjust the liquid level height by introducing air into the gas-liquid separator or discharging air from the gas-liquid separator, characterized in that a liquid level control unit is configured to control the liquid level adjustment mechanism so that, during treatment, the gas is detected at the first height position and the liquid level height is lower than the first height position, and so that, during priming, the gas is not detected at the first height position and the liquid level height is not lower than the first height position.
A method for the production of coking coal, comprising the steps of: ― jointly pretreating a mixture of a biomass and a heavy oil using a liquid-phase pyrolysis, whereby vapours and a bottom product are formed, ― separating the vapours from the bottom product, and ― coking the bottom product, wherein the heavy oil has a kinematic viscosity at 100°C of more than 10 mm 2 /s, preferably of more than 15 mm 2 /s. ― jointly pretreating a mixture of a biomass and a heavy oil using a liquid-phase pyrolysis, whereby vapours and a bottom product are formed, ― separating the vapours from the bottom product, and ― coking the bottom product,
An analyzing and monitoring method, the method comprising: defining at least one indicator relating to at least one of a communications network resource, a communications network service, and a service provided over a communications network; dividing a value range of the at least one indicator into value range classes; characterized in the method further comprising: assigning a binary code to each of the value range classes of the at least one indicator; collecting data relating to the at least one indicator; creating classified data from the collected data by translating at least one piece of the collected data into the binary code assigned to an associated value range class; monitoring the classified data in real-time for changes; reporting at least one monitored change in the classified data; and analyzing a state of at least part of the communications network or a state of a communications network service provided over the communications network only in response to the reported at least one monitored change in the classified data. defining at least one indicator relating to at least one of a communications network resource, a communications network service, and a service provided over a communications network; dividing a value range of the at least one indicator into value range classes; characterized in the method further comprising: assigning a binary code to each of the value range classes of the at least one indicator; collecting data relating to the at least one indicator; creating classified data from the collected data by translating at least one piece of the collected data into the binary code assigned to an associated value range class; monitoring the classified data in real-time for changes; reporting at least one monitored change in the classified data; and analyzing a state of at least part of the communications network or a state of a communications network service provided over the communications network only in response to the reported at least one monitored change in the classified data. assigning a binary code to each of the value range classes of the at least one indicator; collecting data relating to the at least one indicator; creating classified data from the collected data by translating at least one piece of the collected data into the binary code assigned to an associated value range class; monitoring the classified data in real-time for changes; reporting at least one monitored change in the classified data; and analyzing a state of at least part of the communications network or a state of a communications network service provided over the communications network only in response to the reported at least one monitored change in the classified data.
A combination, consisting of: (i) an effective amount of a targeted therapeutic against a cancer comprising an antibody or functional fragment thereof; (ii) a pharmaceutical composition consisting of an admixture of 1) an effective amount of an immunotherapeutic, and 2) one or more pharmaceutically acceptable carriers, excipients or diluents, and, optionally, (iii) an effective amount of an additional therapeutic agent, wherein the additional therapeutic agent is an anticancer agent, wherein the targeted therapeutic of (i) and the immunotherapeutic of (ii) are not linked to each other, wherein the targeted therapeutic is capable of binding to a tumor antigen specifically or preferably in comparison to a non-tumor antigen, wherein the tumor antigen is ErbB2 (also known as Her2/neu), and the immunotherapeutic of (ii) is Resiquimod. (i) an effective amount of a targeted therapeutic against a cancer comprising an antibody or functional fragment thereof; (ii) a pharmaceutical composition consisting of an admixture of 1) an effective amount of an immunotherapeutic, and 2) one or more pharmaceutically acceptable carriers, excipients or diluents, and, optionally, (iii) an effective amount of an additional therapeutic agent, wherein the additional therapeutic agent is an anticancer agent, wherein the targeted therapeutic of (i) and the immunotherapeutic of (ii) are not linked to each other, wherein the targeted therapeutic is capable of binding to a tumor antigen specifically or preferably in comparison to a non-tumor antigen, wherein the tumor antigen is ErbB2 (also known as Her2/neu), and the immunotherapeutic of (ii) is Resiquimod.
A printing apparatus comprising: a memory (12, 13) configured to store, upon request from a first print-instruction originator, first print-instruction information that instructs the printing apparatus to print, in association with the first print-instruction originator, and to store, upon request from a second print-instruction originator, second print-instruction information that instructs the printing apparatus to print, in association with the second print-instruction originator; a printing unit configured to execute, in an order determined by a predetermined rule, a print job based on the first print-instruction information stored in association with the first print-instruction originator, and a print job based on the second print-instruction information stored in association with the second print-instruction originator, when a first terminal apparatus used by the first print-instruction originator and a second terminal apparatus used by the second print-instruction originator exist within a predetermined first distance with reference to the printing apparatus; and characterised by: a notifying unit (191, 192) configured to notify at least one of the first terminal apparatus and the second terminal apparatus of the order determined by the predetermined rule. a memory (12, 13) configured to store, upon request from a first print-instruction originator, first print-instruction information that instructs the printing apparatus to print, in association with the first print-instruction originator, and to store, upon request from a second print-instruction originator, second print-instruction information that instructs the printing apparatus to print, in association with the second print-instruction originator; a printing unit configured to execute, in an order determined by a predetermined rule, a print job based on the first print-instruction information stored in association with the first print-instruction originator, and a print job based on the second print-instruction information stored in association with the second print-instruction originator, when a first terminal apparatus used by the first print-instruction originator and a second terminal apparatus used by the second print-instruction originator exist within a predetermined first distance with reference to the printing apparatus; and characterised by: a notifying unit (191, 192) configured to notify at least one of the first terminal apparatus and the second terminal apparatus of the order determined by the predetermined rule.
A corneal implant (50; 60) comprising a protruding center optic (52; 62) at least partially surrounded by a rim (54; 64), wherein the corneal implant (50; 60) is reversibly deformable, the deformed implant being capable of passage through a corneal incision which is smaller than the width of the undeformed implant.
A device for sharpening of elongated saw tools, comprising - a base which comprises an elongated machine bed; - a fixing device which is adapted to fix the saw tool to be machined relative to the machine bed; - a machining head with an axis of rotation for driving a rotating tool and a lift axle for height adjustment of the rotating tool relative to the machine bed; characterised in that the machining head may by shifted along the machine bed by means of a linear movement axle in such a manner that a fixed saw tool may be machined along a predetermined machining length which comprises a plurality of teeth, and a feed device is provided which is adapted to optionally shift the saw tool along the machine bed by the distance of a single tooth or a tooth pitch, respectively, or by the distance of a predetermined machining length which comprises a plurality of teeth. - a base which comprises an elongated machine bed; - a fixing device which is adapted to fix the saw tool to be machined relative to the machine bed; - a machining head with an axis of rotation for driving a rotating tool and a lift axle for height adjustment of the rotating tool relative to the machine bed;
A process for manufacturing a silicon ingot having a uniform phosphorus concentration, comprising at least the steps consisting in: (i) providing an almost uniform bath of molten silicon comprising at least phosphorus; and (ii) carrying out the directional solidification of the silicon, with a speed of solidification (V I) of the silicon and a rate of evaporation (J LV) of the phosphorus at the liquid-vapor interface of the bath which are controlled such that, at each moment of the directional solidification, the following equation is verified: V I = k ′ / 2 − k in m / s k' representing the phosphorus transfer coefficient in m/s, and k representing the partition coefficient of the phosphorus in the silicon, and J LV = k' × C in moles/m 2.s with C being the phosphorus concentration in the liquid bath at the liquid-vapor interface. (i) providing an almost uniform bath of molten silicon comprising at least phosphorus; and (ii) carrying out the directional solidification of the silicon, with a speed of solidification (V I) of the silicon and a rate of evaporation (J LV) of the phosphorus at the liquid-vapor interface of the bath which are controlled such that, at each moment of the directional solidification, the following equation is verified: V I = k ′ / 2 − k in m / s k' representing the phosphorus transfer coefficient in m/s, and k representing the partition coefficient of the phosphorus in the silicon, and J LV = k' × C in moles/m 2.s with C being the phosphorus concentration in the liquid bath at the liquid-vapor interface. k' representing the phosphorus transfer coefficient in m/s, and k representing the partition coefficient of the phosphorus in the silicon,