mhurhangee/ep-ind-claims huggingface dataset:
A method implemented by a computing device, comprising: receiving a plurality of configuration settings for the computing device from a server via a network; applying a first subset of configuration settings of the plurality of configuration settings to a host operating system executing on the computing device; storing the configuration settings and first results of applying the applicable configuration settings in a local data store, the first results indicating whether the application of the first subset of configuration settings was successful; responsive to a containerized application being instantiated by the host operating system on the computing device, retrieving, by the containerized application, at least a second subset of configuration settings of the plurality of configuration settings from the local data store; and applying the second subset of configuration settings of the plurality of configuration settings to the containerized application and storing second results of the application of the second subset of configuration settings in the local data store, the second results indicating whether the application of the second subset of configuration settings was successful; the method further comprising: merging the first results and the second results to generate merged results; and providing the merged results to the server via the network. receiving a plurality of configuration settings for the computing device from a server via a network; applying a first subset of configuration settings of the plurality of configuration settings to a host operating system executing on the computing device; storing the configuration settings and first results of applying the applicable configuration settings in a local data store, the first results indicating whether the application of the first subset of configuration settings was successful; responsive to a containerized application being instantiated by the host operating system on the computing device, retrieving, by the containerized application, at least a second subset of configuration settings of the plurality of configuration settings from the local data store; and applying the second subset of configuration settings of the plurality of configuration settings to the containerized application and storing second results of the application of the second subset of configuration settings in the local data store, the second results indicating whether the application of the second subset of configuration settings was successful; the method further comprising: merging the first results and the second results to generate merged results; and providing the merged results to the server via the network. merging the first results and the second results to generate merged results; and providing the merged results to the server via the network.
Method for the manufacture of a hot-melt adhesive, by reacting an acid chloride and/or an acid anhydride and/or a lactone in imidazole to give an imidazolide, at least one polysaccharide from the group of cellulose, scleroglucan, curdlan, xylan, pullulan, starch and dextran being added to the imidazole with the imidazolide, the polysaccharide being reacted with the imidazolide to give a polysaccharide ester, characterized in that first the imidazole is melted, the imidazolide being formed in situ directly in the melt without isolation, and the reaction of the polysaccharide being carried out in the melted imidazole as medium of suspension and of swelling.
A microphone system comprising: a MEMS microphone including a movable membrane having a capacitive electrode configured such that acoustic pressures acting on the movable membrane cause movement of the capacitive electrode, and a first piezoelectric electrode altering a mechanical property of the MEMS microphone based on a control signal, and a backplate positioned on a first side of the movable membrane; and an electronic controller electrically coupled to the first piezoelectric electrode and configured to generate a first control signal, wherein the movable membrane further has a second piezoelectric electrode altering the mechanical property of the movable membrane based on a second control signal, wherein the first piezoelectric electrode and the second piezoelectric electrode are coupled to a second side opposing the first side of the movable membrane and the control signal comprises the first and second control signal and the controller is further coupled to the second piezoelectric electrode. a MEMS microphone including a movable membrane having a capacitive electrode configured such that acoustic pressures acting on the movable membrane cause movement of the capacitive electrode, and a first piezoelectric electrode altering a mechanical property of the MEMS microphone based on a control signal, and a backplate positioned on a first side of the movable membrane; and a movable membrane having a capacitive electrode configured such that acoustic pressures acting on the movable membrane cause movement of the capacitive electrode, and a first piezoelectric electrode altering a mechanical property a capacitive electrode configured such that acoustic pressures acting on the movable membrane cause movement of the capacitive electrode, and a first piezoelectric electrode altering a mechanical property of the MEMS microphone based on a control signal, and a backplate positioned on a first side of the movable membrane; and an electronic controller electrically coupled to the first piezoelectric electrode and configured to generate a first control signal, wherein the movable membrane further has a second piezoelectric electrode altering the mechanical property of the movable membrane based on a second control signal, wherein the first piezoelectric electrode and the second piezoelectric electrode are coupled to a second side opposing the first side of the movable membrane and the control signal comprises the first and second control signal and the controller is further coupled to the second piezoelectric electrode.
Deoxyuridine for use in preventing or reducing the risk of development of a neural tube defect in a fetus carried by a subject, wherein the subject is a woman of childbearing age.
A pneumatic tire comprising: a tread portion having a tread edge (Te); the tread portion provided with a circumferentially extending zigzag shoulder main groove arranged proximate to the tread edge (Te), and a plurality of shoulder lateral grooves each extending axially outwardly from the shoulder main groove; each of the shoulder lateral grooves comprising a first portion and second portion; the first portion having an axially inner end connected to the shoulder main groove and a first groove wall; the second portion arranged axially outward of the first portion and having a second groove wall, the second portion having a groove width and a groove depth greater than those of the first portion; and the first groove wall of the first portion and the second groove wall of the second portion being smoothly continued, wherein the shoulder main groove comprises a first inclined element and a second inclined element inclined in an opposite direction to the first inclined element, and the first portion is connected to the first inclined element and is inclined in the same direction of the second inclined element characterized in that the first inclined element comprises a narrow portion and a broad portion having a width greater than that of the narrow portion, the broad portion is arranged axially outward of the narrow portion, and the first portion is connected to the broad portion. a tread portion having a tread edge (Te); the tread portion provided with a circumferentially extending zigzag shoulder main groove arranged proximate to the tread edge (Te), and a plurality of shoulder lateral grooves each extending axially outwardly from the shoulder main groove; each of the shoulder lateral grooves comprising a first portion and second portion; the first portion having an axially inner end connected to the shoulder main groove and a first groove wall; the second portion arranged axially outward of the first portion and having a second groove wall, the second portion having a groove width and a groove depth greater than those of the first portion; and the first groove wall of the first portion and the second groove wall of the second portion being smoothly continued, wherein the shoulder main groove comprises a first inclined element and a second inclined element inclined in an opposite direction to the first inclined element, and the first portion is connected to the first inclined element and is inclined in the same direction of the second inclined element characterized in that the first inclined element comprises a narrow portion and a broad portion having a width greater than that of the narrow portion, the broad portion is arranged axially outward of the narrow portion, and the first portion is connected to the broad portion.
A device for chilling liquid, the device comprising: a tank for receiving and selectively maintaining a volume of liquid within its interior; an inlet for receiving the volume of liquid into the tank; an outlet which permits for the liquid to be removed from the tank; a baffle disposed within the tank such that a first side of the baffle assists in defining a first area within the tank interior for receiving water from the inlet and a second side of the baffle assists in defining a second area within the tank interior for holding at least some of the liquid before it is removed from the tank through the outlet; at least one opening defined by at least part of the baffle and part of the interior of the tank body wherein said opening extends between the first area and the second area and permits for liquid to travel from the first area to the second area; a plurality of cooling fins connected to the tank wherein each cooling fin extends into the interior of the tank and protrudes through the first side of the baffle to the second side of the baffle such that some of the fins extend into the first area of the tank interior and some of the fins extend into the second area of the tank interior; and a plurality of thermoelectric chips in thermal connectivity with the plurality of cooling fins, and positioned such that a heat load associated with the chips is spread over a width that is perpendicular to the flow of the liquid within the tank. a tank for receiving and selectively maintaining a volume of liquid within its interior; an inlet for receiving the volume of liquid into the tank; an outlet which permits for the liquid to be removed from the tank; a baffle disposed within the tank such that a first side of the baffle assists in defining a first area within the tank interior for receiving water from the inlet and a second side of the baffle assists in defining a second area within the tank interior for holding at least some of the liquid before it is removed from the tank through the outlet; at least one opening defined by at least part of the baffle and part of the interior of the tank body wherein said opening extends between the first area and the second area and permits for liquid to travel from the first area to the second area; a plurality of cooling fins connected to the tank wherein each cooling fin extends into the interior of the tank and protrudes through the first side of the baffle to the second side of the baffle such that some of the fins extend into the first area of the tank interior and some of the fins extend into the second area of the tank interior; and a plurality of thermoelectric chips in thermal connectivity with the plurality of cooling fins, and positioned such that a heat load associated with the chips is spread over a width that is perpendicular to the flow of the liquid within the tank.
An air-conditioning system including a plurality of refrigerant systems (A, B, C, D), each including a plurality of air conditioners (10a, 10b, 10c, 10d, 20a, 20b, 20c, 20d, 30a, 30b, 30c), in which the air conditioners belonging to the identical refrigerant system are connected through a communication line (6a, 6b, 6c, 6d) inside the refrigerant system and the air conditioners belonging to the different refrigerant systems are connected through a communication line outside the refrigerant systems, wherein for the air conditioners (10d, 20d) belonging to the identical refrigerant system, a recognition process is executable while a control process is executed by transmission through at least the communication line inside the refrigerant system, characterized in that, in the recognition process, a process is executed in which one of the air conditioners recognizes presence of the other air conditioner belonging to the refrigerant system identical to the refrigerant system of the one of the air conditioners by transmission through the communication line inside the system in a state where transmission through the communication line outside the systems (A, B, C, D) between the air conditioners (10a, 10b, 10c, 10d) belonging to the refrigerant systems (A, B, C, D) different from each other is blocked. for the air conditioners (10d, 20d) belonging to the identical refrigerant system, a recognition process is executable while a control process is executed by transmission through at least the communication line inside the refrigerant system, characterized in that, in the recognition process, a process is executed in which one of the air conditioners recognizes presence of the other air conditioner belonging to the refrigerant system identical to the refrigerant system of the one of the air conditioners by transmission through the communication line inside the system in a state where transmission through the communication line outside the systems (A, B, C, D) between the air conditioners (10a, 10b, 10c, 10d) belonging to the refrigerant systems (A, B, C, D) different from each other is blocked.
Device having an outlet (2, 42) for a liquid, in particular water, wherein the liquid at the outlet (2, 42) enters an open atmosphere from a closed conduction system, and having a means for irradiating the liquid with UV light, it being possible for the irradiation means to be supplied with electrical power and the irradiation means being arranged at the outlet (2, 42) or integrated in said outlet, characterized in that the device is designed as an aerator, wherein the irradiation means has one or more UV-C LEDs for a disinfection action together with a low level of energy consumption, which disinfect the outflowing liquid immediately before it is passed to the open atmosphere, at the location at which it is used, and an electrical supply means supplies the irradiation means with a low voltage which is up to 25V AC or 60V DC, and the irradiation means is arranged in a screen insert of the aerator.
Ventilator, in particular for a hydraulic heating circuit, whereby the ventilator comprises an inlet, an outlet, a delay chamber with enlarged cross-section to separate gas bubbles, a gas collection chamber and a gas drain, whereby the inlet is arranged above the outlet and the gas collection chamber is arranged above the inlet when in installed position characterised in that the delay chamber and the gas collection chamber are configured as a common chamber and that the inlet is formed by the end of a tube that extends from above as a submerged tube into the common chamber, whereby the position of the opening of the tube forming the inlet defines the border between delay chamber and gas collection chamber, and that a valve is arranged between the delay chamber and the outlet and comprises a plate bordering the delay chamber, whereby the valve is configured such that it continually increasingly opens in the flow direction with increasing flow speed, whereby to this end the plate is displaceable against the force of a spring to open axially in flow direction.
A method of manufacturing a valve or an element used to form a valve, the method comprising: forming a first part of a first component using additive manufacturing; adding a second component (32, 32 1, 32 2, 32 3) to the first part of the first component; and forming a second part of the first component using additive manufacturing, characterised in that the second component (32 1, 322) comprises a first part comprising a first material and a second part (34, 35) comprising a second material, the first material of the first part having a greater hardness than the second material of the second part (34, 35), the second part of the second component (321, 322) has a lattice structure. forming a first part of a first component using additive manufacturing; adding a second component (32, 32 1, 32 2, 32 3) to the first part of the first component; and forming a second part of the first component using additive manufacturing, characterised in that the second component (32 1, 322) comprises a first part comprising a first material and a second part (34, 35) comprising a second material, the first material of the first part having a greater hardness than the second material of the second part (34, 35), the second part of the second component (321, 322) has a lattice structure.
A method of predicting a viewing direction of a user operating in an immersive media service by a media transmission apparatus, the method comprising: generating a plurality of spaces of interests, SOIs, and SOI description information for the SOIs; determining at least one SOI corresponding to a viewing direction of the user for a immersive media based on the SOI description information,; and transmitting, to a media reception apparatus, SOI description information corresponding to the determined at least one SOI among the SOI description information corresponding to the plurality of SOIs, and immersive media data corresponding to the determined at least one SOI among the immersive media data corresponding to the plurality of SOls, wherein the SOI description information includes identification information for the at least one SOI, a spatial range indicator for an object of interest, OOI, a vector for indicating direction of the OOI, characterised in that the SOI description information further includes: a priority indicator indicating a priority for each of a plurality of OOIs in the SOI, information on object role describing what the OOI represents in a scene being represented in immersive media, and an indicator indicating dependency between an OOI and other OOI, wherein the priority of the OOI is determined based on the object role of the OOI and the dependency between the OOI and the other OOI. generating a plurality of spaces of interests, SOIs, and SOI description information for the SOIs; determining at least one SOI corresponding to a viewing direction of the user for a immersive media based on the SOI description information,; and transmitting, to a media reception apparatus, SOI description information corresponding to the determined at least one SOI among the SOI description information corresponding to the plurality of SOIs, and immersive media data corresponding to the determined at least one SOI among the immersive media data corresponding to the plurality of SOls, wherein the SOI description information includes identification information for the at least one SOI, a spatial range indicator for an object of interest, OOI, a vector for indicating direction of the OOI, characterised in that the SOI description information further includes: a priority indicator indicating a priority for each of a plurality of OOIs in the SOI, information on object role describing what the OOI represents in a scene being represented in immersive media, and an indicator indicating dependency between an OOI and other OOI, wherein the priority of the OOI is determined based on the object role of the OOI and the dependency between the OOI and the other OOI.
A dual resolution sensing system configured for low resolution, high speed positioning determinations and high resolution, slow speed motion tracking, said system comprising: a primary grid of overlapping lines formed at a first spacing; and a secondary grid formed about the lines of the primary grid and comprising overlapping lines formed at a second spacing that is smaller than the first spacing, and wherein the primary grid and the secondary grid define a matrix of capacitance sensing junctions at the crossover points, and wherein the primary grid and the secondary grid are configured to define clusters of high resolution pixels, wherein the clusters are spaced from one another by a distance that is greater than the second spacing; and wherein the sensing system is configured to: detect coarse finger positions of a sensed finger with the primary grid, and detect small incremental finger movements of the sensed finger by tracking movements of fingerprint ridge and valley features with the secondary grid, wherein the detected coarse finger positions of the sensed finger have not changed. a primary grid of overlapping lines formed at a first spacing; and a secondary grid formed about the lines of the primary grid and comprising overlapping lines formed at a second spacing that is smaller than the first spacing, and wherein the primary grid and the secondary grid define a matrix of capacitance sensing junctions at the crossover points, and wherein the primary grid and the secondary grid are configured to define clusters of high resolution pixels, wherein the clusters are spaced from one another by a distance that is greater than the second spacing; and wherein the sensing system is configured to: detect coarse finger positions of a sensed finger with the primary grid, and detect small incremental finger movements of the sensed finger by tracking movements of fingerprint ridge and valley features with the secondary grid, wherein the detected coarse finger positions of the sensed finger have not changed. detect coarse finger positions of a sensed finger with the primary grid, and detect small incremental finger movements of the sensed finger by tracking movements of fingerprint ridge and valley features with the secondary grid, wherein the detected coarse finger positions of the sensed finger have not changed.