mhurhangee/patent-ind-claim-en huggingface dataset:
A pharmaceutical composition for treating leukemia, mainly made of the following raw materials by weight percentage comprising, 2 to 8 percent of realgar, 25 to 42 percent of indigo naturalis, 50 to 60 percent of salvia miltiorrhiza, and 6 to 10 percent of radix pseudostellariae.
An adaptive optical device including a deformable plate intended to deform an incident wavefront by refraction and/or reflection, characterized in that it further comprises at least: - legs fixedly attached to said deformable plate , - a frame fixed with respect to said deformable plate , - a plurality of peripheral actuators , each leg comprising a movable portion connected to at least one respective of the peripheral actuators so the latter could locally deform said leg so that the latter transmits a deformation force to said deformable plate , each leg further comprising a respective fixed portion which is fixedly attached to said frame so as to be immobilized with respect to the latter. - legs fixedly attached to said deformable plate , - a frame fixed with respect to said deformable plate , - a plurality of peripheral actuators ,
A high temperature curable coating composition comprising: (a) at least one film-forming resin, (b) at least one crosslinker for the film-forming resin, wherein the crosslinker is substantially not reactive with the film-forming resin at temperatures under 120°C, and (c) an anticorrosive agent, which comprises a combination of a magnesium compound and a lithium salt, wherein the lithium salt is selected from inorganic and organic lithium salts that have a solubility constant in water of at least 1×10 -11 at 25°C. (a) at least one film-forming resin, (b) at least one crosslinker for the film-forming resin, wherein the crosslinker is substantially not reactive with the film-forming resin at temperatures under 120°C, and (c) an anticorrosive agent, which comprises a combination of a magnesium compound and a lithium salt, wherein the lithium salt is selected from inorganic and organic lithium salts that have a solubility constant in water of at least 1×10 -11 at 25°C.
A gust compensation system configured to adaptively reduce gust loads exerted into an aircraft , the gust compensation system comprising: a sensor sub-system coupled to the aircraft , wherein the sensor sub-system is configured to output one or more signals; and a gust signal sub-system configured to predict a gust before it is exerted onto or into wings of the aircraft, wherein the gust signal sub-system is configured to receive the one or more signals and generate a gust signal based on analysis of the one or more signals, wherein the gust signal sub-system is configured to output the gust signal to move control surfaces in response to the gust signal prior to the gust being exerted onto or into the wings, wherein the gust signal sub-system is configured to output the gust signal to modify a load parameter signal in response to the gust signal exceeding a load alleviation threshold, wherein the load parameter signal as modified by the gust signal causes control surfaces of the aircraft to change from a normal configuration to a gust load reduction configuration, and wherein the load alleviation threshold comprises a load magnitude that exceeds a load exerted on a wing of the aircraft caused by intentional maneuvering of the aircraft . a sensor sub-system coupled to the aircraft , wherein the sensor sub-system is configured to output one or more signals; and a gust signal sub-system configured to predict a gust before it is exerted onto or into wings of the aircraft, wherein the gust signal sub-system is configured to receive the one or more signals and generate a gust signal based on analysis of the one or more signals, wherein the gust signal sub-system is configured to output the gust signal to move control surfaces in response to the gust signal prior to the gust being exerted onto or into the wings, wherein the gust signal sub-system is configured to output the gust signal to modify a load parameter signal in response to the gust signal exceeding a load alleviation threshold, wherein the load parameter signal as modified by the gust signal causes control surfaces of the aircraft to change from a normal configuration to a gust load reduction configuration, and wherein the load alleviation threshold comprises a load magnitude that exceeds a load exerted on a wing of the aircraft caused by intentional maneuvering of the aircraft .
A vehicular sensing system comprising: a sensor receiving light through a window area ; a heater , positioned over the sensor within the heater window area , comprising a resistive film communicating with metallic conductors adapted to apply current to the resistive film , wherein the resistive film is a positive temperature coefficient material, which is opaque or light diffusing; and an optically transparent substrate supporting the heater elements; wherein the resistive film and metallic conductors are configured to be substantially transparent to the light within the heater window area , characterized in that the metallic conductors comprise a first electrode bus strip extending vertically along an edge of the heater displaced out of the path of light, a second electrode bus strip positioned parallel to and opposite the first electrode bus strip and displaced out of the path of light, and interdigitated finger electrodes each electrically communicating with an alternate respective one of the first and second electrode bus strips and extending inwardly, horizontally and perpendicularly with respect to the first and second bus strips , and in that the positive temperature coefficient material is laid in strips passing perpendicularly between the finger electrodes to provide openings therebetween revealing the transparent substrate . a sensor receiving light through a window area ; a heater , positioned over the sensor within the heater window area , comprising a resistive film communicating with metallic conductors adapted to apply current to the resistive film , wherein the resistive film is a positive temperature coefficient material, which is opaque or light diffusing; and an optically transparent substrate supporting the heater elements; wherein the resistive film and metallic conductors are configured to be substantially transparent to the light within the heater window area , characterized in that the metallic conductors comprise a first electrode bus strip extending vertically along an edge of the heater displaced out of the path of light, a second electrode bus strip positioned parallel to and opposite the first electrode bus strip and displaced out of the path of light, and interdigitated finger electrodes each electrically communicating with an alternate respective one of the first and second electrode bus strips and extending inwardly, horizontally and perpendicularly with respect to the first and second bus strips , and in that the positive temperature coefficient material is laid in strips passing perpendicularly between the finger electrodes to provide openings therebetween revealing the transparent substrate .
Method for producing a trench capacitor comprising the following steps: providing a substrate having a front side and a rear side , producing a trench structure having trenches on the front side of the substrate , depositing an insulating dielectric layer on the front side and in the trenches of the substrate , applying a structure on the rear side of the substrate , applying a first electrode to the insulating dielectric layer deposited on the front side of the substrate and in the trench structure , applying a second electrode to the rear side of the substrate provided with the structure , wherein the structure has perforations , such that the second electrode contacts the rear side of the substrate in the region of the perforations , characterized in that the structure has a net or grid structure. providing a substrate having a front side and a rear side , producing a trench structure having trenches on the front side of the substrate , depositing an insulating dielectric layer on the front side and in the trenches of the substrate , applying a structure on the rear side of the substrate , applying a first electrode to the insulating dielectric layer deposited on the front side of the substrate and in the trench structure , applying a second electrode to the rear side of the substrate provided with the structure , wherein the structure has perforations , such that the second electrode contacts the rear side of the substrate in the region of the perforations , characterized in that the structure has a net or grid structure.
Compound structure made of composite material, such as fiber-reinforced polymer resin, comprising first oblong elements reciprocally distanced and parallel to each other and second oblong elements reciprocally distanced and parallel to each other and crisscrossed with respect to the first oblong elements , said first oblong elements and said second oblong elements being made in a single body to define a reticular structure (13; 13a, 13b) with a monolithic flat shape, wherein at least one of either said first oblong elements or said second oblong elements have a cross section shape defined by a first portion with an elongated quadrangular shape and by a second portion with an elongated quadrangular shape, and wherein the first portion is located incident against the second portion , wherein said compound structure comprises at least one flat element overlapping and coupled with a surface of said reticular structure (13; 13a, 13b), characterized in that said flat element has a reticular conformation, defined in a single body by first segments and second segments having an oblong development and disposed crisscrossed with respect to each other.
A robotic palletizing method comprising: conveying to-be-grouped items to a location in a vicinity of a palletizing robot ; selectively operating the palletizing robot between at least a pregrouping state, in which the palletizing robot seizes the conveyed to-be-grouped items and groups the to-be-grouped items at a pregrouping station , and a principal grouping state, in which the palletizing robot seizes the conveyed to-be-grouped items and groups the to-be-grouped items at a principal grouping station ; and selectively operating a load securing machine between a securing state, in which the load securing machine at least partially secures to-be-grouped items grouped at the principal grouping station , and a non-operational state, the method further comprises operating the palletizing robot in the principal grouping state when the load securing machine is in the non-operational state. conveying to-be-grouped items to a location in a vicinity of a palletizing robot ; selectively operating the palletizing robot between at least a pregrouping state, in which the palletizing robot seizes the conveyed to-be-grouped items and groups the to-be-grouped items at a pregrouping station , and a principal grouping state, in which the palletizing robot seizes the conveyed to-be-grouped items and groups the to-be-grouped items at a principal grouping station ; and selectively operating a load securing machine between a securing state, in which the load securing machine at least partially secures to-be-grouped items grouped at the principal grouping station , and a non-operational state, the method further comprises operating the palletizing robot in the principal grouping state when the load securing machine is in the non-operational state.
An image sensor , comprising: an imaging device ; an optical unit configured to guide light to the imaging device ; and a controller configured to control the imaging device and the optical unit , wherein the optical unit includes: an optical system including a single liquid lens , a first plastic lens located on an object side of the single liquid lens , and a second plastic lens located on an image side of the single liquid lens ; and an electrode to apply a voltage to the single liquid lens ; wherein a plurality of temperature sensors arranged along an optical axis are located near the single liquid lens in the optical unit , and the controller controls the voltage to be applied from the electrode to the single liquid lens in accordance with a temperature measured by the plurality of temperature sensors . an imaging device ; an optical unit configured to guide light to the imaging device ; and a controller configured to control the imaging device and the optical unit , wherein the optical unit includes: an optical system including a single liquid lens , a first plastic lens located on an object side of the single liquid lens , and a second plastic lens located on an image side of the single liquid lens ; and an electrode to apply a voltage to the single liquid lens ; wherein a plurality of temperature sensors arranged along an optical axis are located near the single liquid lens in the optical unit , and an optical system including a single liquid lens , a first plastic lens located on an object side of the single liquid lens , and a second plastic lens located on an image side of the single liquid lens ; and an electrode to apply a voltage to the single liquid lens ; wherein a plurality of temperature sensors arranged along an optical axis are located near the single liquid lens in the optical unit , and the controller controls the voltage to be applied from the electrode to the single liquid lens in accordance with a temperature measured by the plurality of temperature sensors .
A compound of formula (IIA) or an N -oxide thereof, or a pharmaceutically acceptable salt or solvate thereof: wherein E represents -CH 2 -; Q represents -CH 2 O-; Z represents hydrogen or methyl; R 11 represents morpholinyl; R 15 represents hydrogen, fluoro, chloro, methyl, trifluoromethyl, methoxy, difluoromethoxy or trifluoromethoxy; and R 16 represents hydrogen, fluoro, chloro, cyano, methyl, trifluoromethyl, difluoromethoxy or amino. E represents -CH 2 -; Q represents -CH 2 O-; Z represents hydrogen or methyl; R 11 represents morpholinyl; R 15 represents hydrogen, fluoro, chloro, methyl, trifluoromethyl, methoxy, difluoromethoxy or trifluoromethoxy; and R 16 represents hydrogen, fluoro, chloro, cyano, methyl, trifluoromethyl, difluoromethoxy or amino.
Cooling apparatus having a thermal interface for a heat source to be cooled, wherein the cooling apparatus has a thermal pipe , with a first phase change medium , and a latent heat store , with a second phase change medium , in volumes separated from one another, wherein the heat of the heat source is, at the thermal interface, able to be introduced into a heat absorption zone of the thermal pipe , and the melting temperature of the second phase change medium is greater than the evaporation temperature of the first phase change medium , characterized in that the thermal pipe and the latent heat store are formed by two spatial structures nested one inside the other.
A motor driving device for a multiphase motor including star-connected coils (41-43), the motor driving device comprising: a direct-current (DC) power supply ; an inverter including a plurality of switching elements (Q1-Q6) for configuring upper and lower arms for each phase between a positive bus (Lp) and a negative bus (Ln) connected to the DC power supply , wherein the inverter is configured to convert DC power from the DC power supply into alternating-current (AC) power by performing a switching operation with the switching elements (Q1-Q6); and a noise filter configured to reduce noise propagating from the inverter to the DC power supply , characterised in that the noise filter includes a choke coil having a first winding and a second winding wound around a common core , the first winding being inserted into the positive bus (Lp), and two capacitors connected in series between the positive bus (Lp) and the negative bus (Ln), wherein one end of the second winding is connected to a neutral point (N) of the multiphase motor and another end of the second winding is connected to a wire between the two capacitors . a direct-current (DC) power supply ; an inverter including a plurality of switching elements (Q1-Q6) for configuring upper and lower arms for each phase between a positive bus (Lp) and a negative bus (Ln) connected to the DC power supply , wherein the inverter is configured to convert DC power from the DC power supply into alternating-current (AC) power by performing a switching operation with the switching elements (Q1-Q6); and a noise filter configured to reduce noise propagating from the inverter to the DC power supply , characterised in that the noise filter includes a choke coil having a first winding and a second winding wound around a common core , the first winding being inserted into the positive bus (Lp), and two capacitors connected in series between the positive bus (Lp) and the negative bus (Ln), wherein one end of the second winding is connected to a neutral point (N) of the multiphase motor and another end of the second winding is connected to a wire between the two capacitors . a choke coil having a first winding and a second winding wound around a common core , the first winding being inserted into the positive bus (Lp), and two capacitors connected in series between the positive bus (Lp) and the negative bus (Ln), wherein one end of the second winding is connected to a neutral point (N) of the multiphase motor and another end of the second winding is connected to a wire between the two capacitors .
Method carried out by a processing device comprising a processor, the method comprising - obtaining (S400) a signal, obtained from probe measurements, representative of the changes in the level of a liquid in a container; - searching (S402), in the signal, for at least one event of a first type; a given event being associated with one or more signal characteristics enabling identification of the given event in the representative signal and an event of the first type being an event for which no alarm is generated; characterized by - labeling (S403) time periods of the representative signal corresponding to an event of the first type with the event or events of the first type identified for these periods; - following labeling, searching, in the representative signal, for at least one given event of a second type; an event of the second type being an event for which an alarm is generated; - searching for a given event of the second type having the disqualification of signal time periods labeled with certain events of the first type, and retaining signal time periods labeled with other events of the first type; - generating an alarm for the event or events of the second type identified in the signal. - obtaining (S400) a signal, obtained from probe measurements, representative of the changes in the level of a liquid in a container; - searching (S402), in the signal, for at least one event of a first type; a given event being associated with one or more signal characteristics enabling identification of the given event in the representative signal and an event of the first type being an event for which no alarm is generated; characterized by - labeling (S403) time periods of the representative signal corresponding to an event of the first type with the event or events of the first type identified for these periods; - following labeling, searching, in the representative signal, for at least one given event of a second type; an event of the second type being an event for which an alarm is generated; - searching for a given event of the second type having the disqualification of signal time periods labeled with certain events of the first type, and retaining signal time periods labeled with other events of the first type; - generating an alarm for the event or events of the second type identified in the signal.
Process for producing an article, comprising the step of producing the article by means of an additive manufacturing method from a build material, characterized in that the build material comprises a mixture of a multitude of pulverulent thermoplastic polyurethane materials that differ from one another by their Shore hardness (DIN ISO 7619-1).
A method of connecting a first component and a second component with the aid of an auxiliary joining part , wherein the auxiliary joining part is formed from a pin and a plate and a position of intended fracture is present between the plate and the pin , the method comprising the steps of: (i) a first component and the auxiliary joining part are brought into a stacked arrangement such that the plate contacts the first component and the pin projects away from the side of the plate remote from the first component , (ii) a force (K) is exerted on the pin of the auxiliary joining part in the direction towards the first component (21 which leads to a fracture at the position of intended fracture and the pin is used in order to pierce a slug from the first component , characterized in that (iii) the stacked arrangement also comprises the second component, such that the pin also pierces a slug from the second stacked component, (iv) at least one of the end of the pin which is pressed through the second component , the second component, or a washer which is optionally provided there, is deformed in order to provide a form-locked connection of the pin to the second component , or to a washer which is provided there, and (v) at least one of the plate and the end of the pin which was originally remote from the plate, but is now adjacent to it, is deformed in order to also produce a form-fitted connection there. (i) a first component and the auxiliary joining part are brought into a stacked arrangement such that the plate contacts the first component and the pin projects away from the side of the plate remote from the first component , (ii) a force (K) is exerted on the pin of the auxiliary joining part in the direction towards the first component (21 which leads to a fracture at the position of intended fracture and the pin is used in order to pierce a slug from the first component , characterized in that (iii) the stacked arrangement also comprises the second component, such that the pin also pierces a slug from the second stacked component, (iv) at least one of the end of the pin which is pressed through the second component , the second component, or a washer which is optionally provided there, is deformed in order to provide a form-locked connection of the pin to the second component , or to a washer which is provided there, and (v) at least one of the plate and the end of the pin which was originally remote from the plate, but is now adjacent to it, is deformed in order to also produce a form-fitted connection there.