mhurhangee/ep-ind-claims huggingface dataset:
A composition comprising a plurality of elongate elements and a plurality of particles, the elongate elements and particles each comprising a metal or semi-metal selected from one or more of the group comprising silicon, tin, germanium and aluminium or mixtures thereof, characterised in that a. the elongate elements are selected from one or more of the group comprising fibres, tubes, ribbons and flakes and b. the particles are selected from one or more of the group comprising pillared particles, porous particles and porous particle fragments. a. the elongate elements are selected from one or more of the group comprising fibres, tubes, ribbons and flakes and b. the particles are selected from one or more of the group comprising pillared particles, porous particles and porous particle fragments.
Load data transformer (100, 200, 300) comprising: a data interface (101, 201, 301) configured to communicatively couple to at least one load data source network (LDSN) and at least one load data receiving network; a data transformer (102, 202, 302) communicatively coupled to the data interface (101, 201, 301), and configured to receive load data (104, 204, 304) via the data interface (101, 201, 301) from the load data source network (LDSN), and transform the load data (104, 204, 304) into transformed load data (111, 211, 311) based on a radio access network resources schedule (119, 219, 319) of a broadcast network, and to output the transformed load data (111, 211, 311) via the data interface (101, 201, 301) to the load data receiving network; wherein radio access network resources schedule (119, 219, 319) comprises information about reservations of radio access network resources for at least one radio access network of the broadcast network; wherein the data transformer (102, 202, 302) when transforming is configured to transform the requested time for transmission of the load data (104, 204, 304) to an earlier transmission time. a data interface (101, 201, 301) configured to communicatively couple to at least one load data source network (LDSN) and at least one load data receiving network; a data transformer (102, 202, 302) communicatively coupled to the data interface (101, 201, 301), and configured to receive load data (104, 204, 304) via the data interface (101, 201, 301) from the load data source network (LDSN), and transform the load data (104, 204, 304) into transformed load data (111, 211, 311) based on a radio access network resources schedule (119, 219, 319) of a broadcast network, and to output the transformed load data (111, 211, 311) via the data interface (101, 201, 301) to the load data receiving network; wherein radio access network resources schedule (119, 219, 319) comprises information about reservations of radio access network resources for at least one radio access network of the broadcast network; wherein the data transformer (102, 202, 302) when transforming is configured to transform the requested time for transmission of the load data (104, 204, 304) to an earlier transmission time.
A chassis comprising: a plurality of slots each configured to receive a module (104A, 104B) having one or more information handling systems, wherein each slot is configured to electrically and communicatively couple the module to other components of the chassis; and a controller communicatively coupled to each of the plurality of slots and configured to: receive a user request to apply a switch configuration; communicate to a remote access controller integral to at least one module disposed in the plurality of slots an indication that a user has requested application of a switch configuration; receive, in response to the indication, a request to download a switch configuration file from the controller to the remote access controller; and transfer, in response to the request to download the switch configuration file, the switch configuration file to the remote access controller such that the remote access controller applies parameters set forth in the switch configuration file in order to configure an in-band switch associated with the module comprising the remote access controller. a plurality of slots each configured to receive a module (104A, 104B) having one or more information handling systems, wherein each slot is configured to electrically and communicatively couple the module to other components of the chassis; and a controller communicatively coupled to each of the plurality of slots and configured to: receive a user request to apply a switch configuration; communicate to a remote access controller integral to at least one module disposed in the plurality of slots an indication that a user has requested application of a switch configuration; receive, in response to the indication, a request to download a switch configuration file from the controller to the remote access controller; and transfer, in response to the request to download the switch configuration file, the switch configuration file to the remote access controller such that the remote access controller applies parameters set forth in the switch configuration file in order to configure an in-band switch associated with the module comprising the remote access controller. receive a user request to apply a switch configuration; communicate to a remote access controller integral to at least one module disposed in the plurality of slots an indication that a user has requested application of a switch configuration; receive, in response to the indication, a request to download a switch configuration file from the controller to the remote access controller; and transfer, in response to the request to download the switch configuration file, the switch configuration file to the remote access controller such that the remote access controller applies parameters set forth in the switch configuration file in order to configure an in-band switch associated with the module comprising the remote access controller.
Tyre for heavy load vehicle wheels, having a tread band comprising: - a plurality of circumferential grooves (3, 4, 5, 6); - a plurality of transverse grooves extending between two axially consecutive circumferential grooves (3, 4, 5, 6), thus defining a plurality of blocks; - each block comprising a radially outer top surface and having a height measured between said top surface and a bottom surface of a respective transverse groove; - said transverse grooves comprising a first segment having a width L1 and a second segment having a width L2; - said first segment being at least partially delimited by walls of two circumferentially consecutive blocks (20, 21); - at least one filling element contained within said first segment; - said at least one filling element having a radially outer top surface, located radially inwardly relative to said top surface of the block at a radial distance between 5% and 50% of the height of the blocks; - said at least one filling element being spaced apart from said walls (27, 28) along at least 70% of its perimeter; characterized in that - the plan surface area of said top surface of said at least one filling element is greater than 60% of the plan surface area of said first segment; and - L2 < L1 - a plurality of circumferential grooves (3, 4, 5, 6); - a plurality of transverse grooves extending between two axially consecutive circumferential grooves (3, 4, 5, 6), thus defining a plurality of blocks; - each block comprising a radially outer top surface and having a height measured between said top surface and a bottom surface of a respective transverse groove; - said transverse grooves comprising a first segment having a width L1 and a second segment having a width L2; - said first segment being at least partially delimited by walls of two circumferentially consecutive blocks (20, 21); - at least one filling element contained within said first segment; - said at least one filling element having a radially outer top surface, located radially inwardly relative to said top surface of the block at a radial distance between 5% and 50% of the height of the blocks; - said at least one filling element being spaced apart from said walls (27, 28) along at least 70% of its perimeter; characterized in that - the plan surface area of said top surface of said at least one filling element is greater than 60% of the plan surface area of said first segment; and - L2 < L1
Apparatus (gNB) comprising: one or more processors, and memory storing instructions that, when executed by the one or more processors, cause the apparatus to: instruct a first cell to provide, to a terminal, a first machine learning model instance associated to the first cell and a second machine learning model instance associated to a second cell different from the first cell; check if the terminal is in a predefined overlapping area; inhibit the providing the second machine learning model instance to the terminal if the terminal is outside the predefined overlapping area; instruct the first cell to configure the terminal with a measurement event; check if the terminal reports the measurement event; and inhibit the providing the second machine learning model instance to the terminal if the terminal does not report the measurement event. one or more processors, and memory storing instructions that, when executed by the one or more processors, cause the apparatus to: instruct a first cell to provide, to a terminal, a first machine learning model instance associated to the first cell and a second machine learning model instance associated to a second cell different from the first cell; check if the terminal is in a predefined overlapping area; inhibit the providing the second machine learning model instance to the terminal if the terminal is outside the predefined overlapping area; instruct the first cell to configure the terminal with a measurement event; check if the terminal reports the measurement event; and instruct a first cell to provide, to a terminal, a first machine learning model instance associated to the first cell and a second machine learning model instance associated to a second cell different from the first cell; check if the terminal is in a predefined overlapping area; inhibit the providing the second machine learning model instance to the terminal if the terminal is outside the predefined overlapping area; instruct the first cell to configure the terminal with a measurement event; check if the terminal reports the measurement event; and
A random access preamble sending method, wherein the method comprises: sending, by a terminal device, a first random access preamble to a network device; and obtaining, by the terminal device, power configuration information used to indicate a transmit power ramping performed in a first time period; and when the terminal device receives no random access response when a first sending moment arrives, sending, by the terminal device, a second random access preamble to the network device in the first time period, using transmit power indicated in the power configuration information, wherein the first time period is a time window used to receive a random access response sent by the network device after receiving the first random access preamble, and the first time period comprises the first sending moment. sending, by a terminal device, a first random access preamble to a network device; and obtaining, by the terminal device, power configuration information used to indicate a transmit power ramping performed in a first time period; and when the terminal device receives no random access response when a first sending moment arrives, sending, by the terminal device, a second random access preamble to the network device in the first time period, using transmit power indicated in the power configuration information, wherein the first time period is a time window used to receive a random access response sent by the network device after receiving the first random access preamble, and the first time period comprises the first sending moment.
A method for the production of methanol from a synthesis gas containing hydrogen and carbon oxides with a high content of inert components, wherein (a) the synthesis gas is passed through at least one synthesis reactor, in which a part of the carbon oxides is catalytically converted to methanol, (b) the methanol is separated from the obtained mixture containing synthesis gas, inert components and methanol vapor, (c) the mixture liberated from methanol is separated into a cycle stream and a purge stream, (d) the cycle stream is recirculated to the at least one synthesis reactor and in this way forms a synthesis cycle, (e) the cycle stream is combined with a fresh gas stream containing hydrogen and carbon oxides before again being charged to the synthesis reactor, characterized in that (f) the purge stream is supplied to a secondary reactor, being arranged outside of the synthesis cycle, in which a further part of the hydrogen and the carbon oxides is catalytically converted to methanol, (g) further methanol is separated from the obtained mixture containing synthesis gas, inert components and methanol vapor. (a) the synthesis gas is passed through at least one synthesis reactor, in which a part of the carbon oxides is catalytically converted to methanol, (b) the methanol is separated from the obtained mixture containing synthesis gas, inert components and methanol vapor, (c) the mixture liberated from methanol is separated into a cycle stream and a purge stream, (d) the cycle stream is recirculated to the at least one synthesis reactor and in this way forms a synthesis cycle, (e) the cycle stream is combined with a fresh gas stream containing hydrogen and carbon oxides before again being charged to the synthesis reactor, characterized in that (f) the purge stream is supplied to a secondary reactor, being arranged outside of the synthesis cycle, in which a further part of the hydrogen and the carbon oxides is catalytically converted to methanol, (g) further methanol is separated from the obtained mixture containing synthesis gas, inert components and methanol vapor.
A wireless communication device comprising: a determination unit operable to determine a country location of the wireless communication device; a communication unit operable to wirelessly communicate with another wireless communication device; a setting unit operable to set a frequency in accordance with the country location of the wireless communication device determined by the determination unit to the communication unit; and a storage medium; wherein the determination unit is operable to determine a country location of the wireless communication device based on a plurality of pieces of location region information of the wireless communication device acquired by a plurality of different methods; the plurality of methods include a method that acquires country location information registered in advance, at initialization by a user, in the storage medium; when the country location information acquired by the method and the country location information acquired by another method match, the determination unit is operable to determine a country location of the wireless communication device according to the matching country location information; and when the country location information acquired by the method and the country location information acquired by the another method do not match, the setting unit is operable to set a frequency available in all countries to the communication unit. a determination unit operable to determine a country location of the wireless communication device; a communication unit operable to wirelessly communicate with another wireless communication device; a setting unit operable to set a frequency in accordance with the country location of the wireless communication device determined by the determination unit to the communication unit; and a storage medium; wherein the determination unit is operable to determine a country location of the wireless communication device based on a plurality of pieces of location region information of the wireless communication device acquired by a plurality of different methods; the plurality of methods include a method that acquires country location information registered in advance, at initialization by a user, in the storage medium; when the country location information acquired by the method and the country location information acquired by another method match, the determination unit is operable to determine a country location of the wireless communication device according to the matching country location information; and when the country location information acquired by the method and the country location information acquired by the another method do not match, the setting unit is operable to set a frequency available in all countries to the communication unit.
A main runner for a suspended ceiling grid system comprising: a) a central web formed of two layers of sheet metal having first and second ends; b) a reinforcement bulb extending from an upper portion of the central web between the first and second ends of the central web; c) opposed flanges extending from a portion end of the central web between the first and second ends of the central web; d) first and second end connector integral with the central web and extending from the first and second ends of the central web, respectively, past the flanges, the first end connector being displaced out of a plane defined by the central web in a first direction and the second end connector being displaced out of the plane defined by the central web in a second direction opposite to the first direction, each of the first and second end connectors having a distal edge; e) a strap adjacent each end of the central web deformed out of the plane of the central web in a direction opposite to the adjacent end connector, the strap being configured to receive an end portion of an end connector of a second tee f) each of the first and second end connectors further comprising a rectangularly-shaped embossment extending out of a first side of the end connector, the embossment being defined by a proximal edge, a distal edge, an upper edge and a lower edge, characterized in that each of the first and second end connectors further comprises first and second spaced-apart locking tabs each having a proximal tapered camming surface and distal locking surface extending out of a second side of the end connector, such that the distal locking surface of the locking tabs engage the distal edge of the end connector of the second tee. a) a central web formed of two layers of sheet metal having first and second ends; b) a reinforcement bulb extending from an upper portion of the central web between the first and second ends of the central web; c) opposed flanges extending from a portion end of the central web between the first and second ends of the central web; d) first and second end connector integral with the central web and extending from the first and second ends of the central web, respectively, past the flanges, the first end connector being displaced out of a plane defined by the central web in a first direction and the second end connector being displaced out of the plane defined by the central web in a second direction opposite to the first direction, each of the first and second end connectors having a distal edge; e) a strap adjacent each end of the central web deformed out of the plane of the central web in a direction opposite to the adjacent end connector, the strap being configured to receive an end portion of an end connector of a second tee f) each of the first and second end connectors further comprising a rectangularly-shaped embossment extending out of a first side of the end connector, the embossment being defined by a proximal edge, a distal edge, an upper edge and a lower edge,
A method for a transmitting User Equipment, TX UE, operating in a wireless communication system, the method comprising: receiving a sidelink grant from a Base Station, BS, for communicating with a receiving UE, RX UE; determining a size of the received sidelink grant; transmitting a Medium Access Control Protocol Data Unit, MAC PDU, for sidelink communication if the size of the received sidelink grant is equal to or larger than 10 bytes, wherein the MAC PDU for sidelink communication includes 6 bytes of a SideLink Shared CHannel, SL-SCH, MAC subheader, 2 bytes of a MAC subheader, 1 byte of a Radio Link Control, RLC, subheader, and at least 1 byte of data; and transmitting a MAC PDU for sidelink communication if the size of the received sidelink grant is less than 10 bytes, wherein the MAC PDU is transmitted by including only padding bits. receiving a sidelink grant from a Base Station, BS, for communicating with a receiving UE, RX UE; determining a size of the received sidelink grant; transmitting a Medium Access Control Protocol Data Unit, MAC PDU, for sidelink communication if the size of the received sidelink grant is equal to or larger than 10 bytes, wherein the MAC PDU for sidelink communication includes 6 bytes of a SideLink Shared CHannel, SL-SCH, MAC subheader, 2 bytes of a MAC subheader, 1 byte of a Radio Link Control, RLC, subheader, and at least 1 byte of data; and transmitting a MAC PDU for sidelink communication if the size of the received sidelink grant is less than 10 bytes, wherein the MAC PDU is transmitted by including only padding bits.
Splitter device for telecommunications and data technology, comprising a high-pass filter, a low-pass filter, at least one first port, at least one second port and at least one third port, wherein the high-pass filter is arranged between the first port and the third port and the low-pass filter is arranged between the second port and the third port, wherein the splitter device has at least one first switching element on the first port and at least one further switching element on the third port,the splitter device has at least one overvoltage protection circuit, wherein the at least one overvoltage protection circuit is arranged between the third port and the second switching element and/or between the second port and the low- pass filter, wherein the high-pass filter is situated between the first and third ports (11,13) for signaling purposes in a first switching position of the first and second switching elements (7, 8) and, in a second switching position, the first and second switching elements (7, 8) are connected to one another directly, characterized in that the splitter device has a control unit which controls the switching elements (7, 8) wherein the control unit is designed in such a way that on picking up a separate DC sequence or a corresponding trigger signal over the first port to switch the switching elements (7, 8) temporarily for a predefined time period or permanently from the first switching position to the second switching position.
A method for proving a Coriolis flow meter by determining a time delay between an actual flow rate and a measured flow rate in the Coriolis flow meter characterized by: providing the time delay from the Coriolis flow meter to a proving device; proving the Coriolis flow meter with the proving device using the time delay. providing the time delay from the Coriolis flow meter to a proving device; proving the Coriolis flow meter with the proving device using the time delay.