mhurhangee/ep-ind-claims huggingface dataset:
An apparatus for forming a container from a container preform, said apparatus comprising: a housing; a mold cavity; and a nozzle system disposed in said housing and operably connectable to the mold cavity, said nozzle system being positionable between a first position engaging said housing along an interface of contact preventing pressurized liquid from being injected into the container preform and a second position spaced apart from said housing permitting pressurized liquid to be injected into the container preform, the apparatus being characterized in that said nozzle system has a tip portion (32, 82), said tip portion being positionable within the container to displacement a predetermine volume of liquid to define a predetermined head space with the container after filling. a housing; a mold cavity; and a nozzle system disposed in said housing and operably connectable to the mold cavity, said nozzle system being positionable between a first position engaging said housing along an interface of contact preventing pressurized liquid from being injected into the container preform and a second position spaced apart from said housing permitting pressurized liquid to be injected into the container preform, the apparatus being characterized in that said nozzle system has a tip portion (32, 82), said tip portion being positionable within the container to displacement a predetermine volume of liquid to define a predetermined head space with the container after filling.
Open-end spinning machine having a plurality of workstations, which are arranged next to one another and have open-end spinning devices, each of which comprises a sliver opening device having a trash outlet opening, wherein: a trash disposal device extending in the machine longitudinal direction is arranged under the trash outlet openings; the trash disposal device is designed to transport trash particles to pneumatic trash suctioning devices in the region of machine end frames; at least one intermediate unit is arranged between the workstations and comprises an additional pneumatic trash suctioning device, which is designed to suction trash particles from the trash disposal device, characterised in that the intermediate unit is designed in such a way that it can be fitted instead of a workstation.
A method for a tightness test of a test object filled with a liquid, said test object having an internal pressure which is lower than atmospheric pressure, comprising the following steps: inserting the test object into a test chamber, evacuating the test chamber to a pressure which is lower than the internal pressure inside the test object, drawing off residual gas components from the test chamber together with gas components desorbing from a wall of the test chamber and parts of the liquid escaping from the test object through a leak in the latter without any carrier gas being fed to the test chamber from outside, and transporting the drawn-off residual gas components together with the parts of the liquid escaped from the test object to a detector, characterized by the detection of parts of the liquid escaped through a leak in the test object by means of a detector, wherein no gas contained in the test object is used as a test gas for leak detection. inserting the test object into a test chamber, evacuating the test chamber to a pressure which is lower than the internal pressure inside the test object, drawing off residual gas components from the test chamber together with gas components desorbing from a wall of the test chamber and parts of the liquid escaping from the test object through a leak in the latter without any carrier gas being fed to the test chamber from outside, and transporting the drawn-off residual gas components together with the parts of the liquid escaped from the test object to a detector, characterized by the detection of parts of the liquid escaped through a leak in the test object by means of a detector, wherein no gas contained in the test object is used as a test gas for leak detection.
Method for executing an application service accessible from a user terminal and executed from at least one application services platform to which said terminal is connected by way of at least one communication network, said method being characterized in that it comprises the following steps, implemented by said platform: ▪ receiving a notification of selection by a user of said user terminal, of a descriptive functional model of an application service to be executed, from among a set of descriptive functional models of application services; ▪ determining (500 1) at least one implementation rule associated with said descriptive functional model selected by the user; ▪ identifying (500 2) via at least one provider of application services, at least one application service implementing said at least one implementation rule; ▪ transmitting to said user terminal a list of at least one application service, identified during the previous step, adapted to implement, respectively, said descriptive functional model while taking account of said at least one implementation rule; ▪ executing an application service selected by the user from said list of application services which is transmitted to said user terminal; ▪ transmitting to said user terminal an execution result of said application service selected, for presentation on said user terminal. ▪ receiving a notification of selection by a user of said user terminal, of a descriptive functional model of an application service to be executed, from among a set of descriptive functional models of application services; ▪ determining (500 1) at least one implementation rule associated with said descriptive functional model selected by the user; ▪ identifying (500 2) via at least one provider of application services, at least one application service implementing said at least one implementation rule; ▪ transmitting to said user terminal a list of at least one application service, identified during the previous step, adapted to implement, respectively, said descriptive functional model while taking account of said at least one implementation rule; ▪ executing an application service selected by the user from said list of application services which is transmitted to said user terminal; ▪ transmitting to said user terminal an execution result of said application service selected, for presentation on said user terminal.
A computer-implemented method of selectively loading classes during an initialization of an operating system of a computing device, the method comprising: initializing an application virtual machine; loading classes selected from a first class list; loading resources of the computing device; loading a service-loading process configured to initialize services of the operating system and register the services with a service manager; and characterized in that the method further comprises loading classes selected from a second class list after loading the service-loading process; wherein the first class list and the second class list are generated based on a load time of each class, a number of processes that use each class, and/or a parameter indicating a priority of each class, wherein each class in the first class list has a load time that is less than a load time threshold and is utilized by a number of processes that is greater than a threshold number of processes, and wherein each class in the second class list has a load time that is greater than the load time threshold and is utilized by a number of processes that is greater than the threshold number of processes. initializing an application virtual machine; loading classes selected from a first class list; loading resources of the computing device; loading a service-loading process configured to initialize services of the operating system and register the services with a service manager; and characterized in that the method further comprises loading classes selected from a second class list after loading the service-loading process; wherein the first class list and the second class list are generated based on a load time of each class, a number of processes that use each class, and/or a parameter indicating a priority of each class, wherein each class in the first class list has a load time that is less than a load time threshold and is utilized by a number of processes that is greater than a threshold number of processes, and wherein each class in the second class list has a load time that is greater than the load time threshold and is utilized by a number of processes that is greater than the threshold number of processes.
A system for confirming an update of a licensed computer data product in a client computer, wherein the system comprising: - a) a client license update manager being able to perform the update; - b) a client license update confirmation manager being able to generate an update confirmation; - c) a server license update confirmation manager being able to receive said update confirmation; - d) a trusted sequential update counter; characterized in that: - the client license update confirmation manager includes an authenticator, said authenticator being configured to authenticate said update confirmation, said update confirmation authentication allowing to prevent tampering of said update confirmation; and - the server license update confirmation manager includes a validator, said validator being configured to validate said update confirmation authentication thus certifying that said update confirmation authentication was issued by the client license update confirmation manager and serving as reliable evidence that the installation or update actually took place; and in that the license update confirmation comprises an authenticated sequential number generated by a trusted sequential update counter, wherein the server license update confirmation manager checks the accuracy of the update confirmation by requiring the updates to be done in strict sequential order with no omissions of any numbers. - a) a client license update manager being able to perform the update; - b) a client license update confirmation manager being able to generate an update confirmation; - c) a server license update confirmation manager being able to receive said update confirmation; - d) a trusted sequential update counter; - the client license update confirmation manager includes an authenticator, said authenticator being configured to authenticate said update confirmation, said update confirmation authentication allowing to prevent tampering of said update confirmation; and - the server license update confirmation manager includes a validator, said validator being configured to validate said update confirmation authentication thus certifying that said update confirmation authentication was issued by the client license update confirmation manager and serving as reliable evidence that the installation or update actually took place;
A method in a wireless communication device (103, 104, 200) that supports aggregated carrier access, the method comprising: determining that a first condition for transmitting a first power headroom report for a first uplink carrier is satisfied; scheduling the first power headroom report for transmission during a first time period when the first condition is satisfied; determining whether a second condition for transmitting a second power headroom report of a second uplink carrier is satisfied in addition to the first condition being satisfied, wherein the second uplink carrier is different from the first uplink carrier, the second condition comprising: determining that a resource allocation for reception of data on the downlink carrier paired to the second uplink carrier has been received within a second elapsed time period; and scheduling, if the second condition for transmitting of the second power headroom report is satisfied in addition to the first condition being satisfied, a second power headroom report for transmission during the first time period. determining that a first condition for transmitting a first power headroom report for a first uplink carrier is satisfied; scheduling the first power headroom report for transmission during a first time period when the first condition is satisfied; determining whether a second condition for transmitting a second power headroom report of a second uplink carrier is satisfied in addition to the first condition being satisfied, wherein the second uplink carrier is different from the first uplink carrier, the second condition comprising: determining that a resource allocation for reception of data on the downlink carrier paired to the second uplink carrier has been received within a second elapsed time period; and scheduling, if the second condition for transmitting of the second power headroom report is satisfied in addition to the first condition being satisfied, a second power headroom report for transmission during the first time period.
A Bluetooth Low Energy, BLE, Generic Attribute Profile, GATT, device comprising: a transmitter and receiver configured to transmit and receive communication packets to and from a second device; and a processor, wherein the processor is configured to: - generate a packet which includes an attribute handle parameter set to a reference information of a characteristic for data communication and an attribute value parameter comprising a distinguishing information for distinguishing predetermined data and a flag for indicating a use of the packet; and - transmit the packet to the second device; wherein the reference information is a handle of the characteristic for data communication; wherein the characteristic for data communication is a characteristic used for data communication between the device and the second device; wherein the flag is set to a first value if the packet is used for requesting the second device to write the predetermined value in an attribute value corresponding to the distinguishing information, a second value if the packet is used to make a request to the second device for the predetermined data distinguished by the piece of distinguishing information, and a third value if the packet is used to notify the predetermined data to the second device; wherein the attribute value parameter further comprises the predetermined data when the packet is used for writing or notifying the predetermined data. a transmitter and receiver configured to transmit and receive communication packets to and from a second device; and a processor, wherein the processor is configured to: - generate a packet which includes an attribute handle parameter set to a reference information of a characteristic for data communication and an attribute value parameter comprising a distinguishing information for distinguishing predetermined data and a flag for indicating a use of the packet; and - transmit the packet to the second device; wherein the reference information is a handle of the characteristic for data communication; wherein the characteristic for data communication is a characteristic used for data communication between the device and the second device; wherein the flag is set to a first value if the packet is used for requesting the second device to write the predetermined value in an attribute value corresponding to the distinguishing information, a second value if the packet is used to make a request to the second device for the predetermined data distinguished by the piece of distinguishing information, and a third value if the packet is used to notify the predetermined data to the second device; wherein the attribute value parameter further comprises the predetermined data when the packet is used for writing or notifying the predetermined data. - generate a packet which includes an attribute handle parameter set to a reference information of a characteristic for data communication and an attribute value parameter comprising a distinguishing information for distinguishing predetermined data and a flag for indicating a use of the packet; and - transmit the packet to the second device;
A core network node configured to interact with a plurality of radio access network nodes (102 1, 102 2) to time coordinate a plurality of cells (152 1, 152 2) and maintain a reliability of paging a wireless device (104 2), the CN node comprising: a processor; and, a memory that stores processor-executable instructions, wherein the processor interfaces with the memory to execute the processor-executable instructions, whereby the CN node is operable to: transmit (602b1) a paging request to one of the RAN nodes, wherein the paging request includes information associated with the wireless device, the information for using by the one RAN node to calculate a time remaining until a next paging opportunity for the wireless device within the cells (152 1, 152 2) comprising a paging area of the wireless device (104 2); and, receive (602b2) a paging response from the one RAN node, wherein the paging response includes the time remaining until a next paging opportunity for the wireless device. a processor; and, a memory that stores processor-executable instructions, wherein the processor interfaces with the memory to execute the processor-executable instructions, whereby the CN node is operable to: transmit (602b1) a paging request to one of the RAN nodes, wherein the paging request includes information associated with the wireless device, the information for using by the one RAN node to calculate a time remaining until a next paging opportunity for the wireless device within the cells (152 1, 152 2) comprising a paging area of the wireless device (104 2); and, receive (602b2) a paging response from the one RAN node, wherein the paging response includes the time remaining until a next paging opportunity for the wireless device. transmit (602b1) a paging request to one of the RAN nodes, wherein the paging request includes information associated with the wireless device, the information for using by the one RAN node to calculate a time remaining until a next paging opportunity for the wireless device within the cells (152 1, 152 2) comprising a paging area of the wireless device (104 2); and, receive (602b2) a paging response from the one RAN node, wherein the paging response includes the time remaining until a next paging opportunity for the wireless device.
An aerosol generating device capable of adjusting the heating area, comprising: a device main body, the device main body internally defining a heating chamber for accommodating an aerosol generating material; a heating element (104, 110) made of a metal material and mounted in the heating chamber; an induction coil configured to generate an alternating magnetic field and positioned around the periphery of the heating element (104, 110); a power supply which is connected with the induction coil to form an electrical circuit, characterized in that the physical length (A-C) of the induction coil i.e. the length which extends around the periphery of the heating element (104, 110) is fixed; and in that the device further comprises an adjusting element (105, 203), configured to change the electrical length (A-B) of the induction coil, i.e. the length which is connected into the electrical circuit, so that at least a portion of the heating element (104, 110) corresponding to and overlapping the induction coil of this electrical length (A-B) internally generates eddy currents and heat. a device main body, the device main body internally defining a heating chamber for accommodating an aerosol generating material; a heating element (104, 110) made of a metal material and mounted in the heating chamber; an induction coil configured to generate an alternating magnetic field and positioned around the periphery of the heating element (104, 110); a power supply which is connected with the induction coil to form an electrical circuit,
Method for removing SO 2 from flue gases of boilers with fluidized-bed technology, said method comprising the direct introduction of CaO into the boiler wherein said CaO has a granulometry between 0.001 and 500 μm; wherein said method comprises the production of CaO and said CaO is prepared as follows: a. Quarrying, crushing, and selection of limestone, essentially constituted of calcium carbonate (CaCO 3), according to lump sizes suitable for subsequent calcination; b. Introduction of CaCO 3, prepared as in the preceding point, in a lime kiln, in which the process of dissociation of CaCO 3 is controlled to a temperature that can be from 850°C to 1100°C, for a residence time of the material in the kiln in the range from 12 to 24 hours. c. The CaO, obtained as described in the preceding point, is discharged from the kiln and is ground in suitable mills and is selected according to granulometric classes defined in relation to the site-specific requirements of the power station that receives the material; in the present case, the ideal granulometry, for any plant, will be defined according to a procedure that envisages adjustments, by successive approximations, of the granulometric distribution of the material to be introduced into the combustion chamber of the boiler that makes it possible to remove most of the SO 2 resulting from combustion, at the same time minimizing or cancelling the amount of residual calcium oxide present in the ash that results from said combustion. a. Quarrying, crushing, and selection of limestone, essentially constituted of calcium carbonate (CaCO 3), according to lump sizes suitable for subsequent calcination; b. Introduction of CaCO 3, prepared as in the preceding point, in a lime kiln, in which the process of dissociation of CaCO 3 is controlled to a temperature that can be from 850°C to 1100°C, for a residence time of the material in the kiln in the range from 12 to 24 hours. c. The CaO, obtained as described in the preceding point, is discharged from the kiln and is ground in suitable mills and is selected according to granulometric classes defined in relation to the site-specific requirements of the power station that receives the material; in the present case, the ideal granulometry, for any plant, will be defined according to a procedure that envisages adjustments, by successive approximations, of the granulometric distribution of the material to be introduced into the combustion chamber of the boiler that makes it possible to remove most of the SO 2 resulting from combustion, at the same time minimizing or cancelling the amount of residual calcium oxide present in the ash that results from said combustion.
Hot-working material composed of a three-layer composite material, comprising a core layer of a hardenable steel which in the press-hardened state has a tensile strength > 2000 MPa and/or a hardness > 600 HV10, and two outer layers bonded substance-to-substance with the core layer and composed of a soft steel which has a tensile strength corresponding at most to one quarter of the tensile strength of the core layer in the press-hardened state, and provided on one or both sides with an anticorrosion coating, more particularly an aluminium-based coating, where the core layer, besides Fe and unavoidable production-related impurities, in wt%, consists of C: 0.43-0.8%, Si: up to 0.5%, Mn: up to 2.0%, P: up to 0.06%, S: up to 0.05%, Al: up to 0.2%, Cr+Mo: up to 1.0%, Cu: up to 0.2%, N: up to 0.01%, Nb+Ti: up to 0.2%, Ni: up to 0.5%, V: up to 0.2%, B: up to 0.01%, As: up to 0.02%, Ca: up to 0.01%, Co: up to 0.02%, Sn: up to 0.05% and where the outer layers, besides Fe and unavoidable production-related impurities, in wt%, consist of C: up to 0.06%, Si: up to 0.6%, Mn: up to 1.0%, P: up to 0.1%, S: up to 0.06%, Al: up to 0.2%, Cr+Mo: up to 0.5%, Cu: up to 0.3%, N: up to 0.01%, Ni: up to 0.3%, Nb+Ti: up to 0.25%, V: up to 0.05%, B: up to 0.01%, Sn: up to 0.05% Ca: up to 0.01%, Co: up to 0.02%.