mhurhangee/ep-ind-claims huggingface dataset:
An installation for the application of a coating product comprising a print head equipped with a plurality of nozzles and supplied by a source of coating product, each nozzle being controlled by a valve supplied by the source of coating product, characterized in that - the installation comprises a coating product accumulator installed on a circuit for the circulation of the coating product, which passes through the print head; - the accumulator comprises a deformable or movable wall delimiting, at least in part, a first chamber of variable volume supplied with coating product and a second chamber of variable volume supplied with gas, under a predetermined pressure; - the predetermined pressure for supplying the second chamber of variable volume is equal to a nominal operating pressure of the print head; - the first chamber of variable volume is supplied or purged with coating product due to a difference between an instantaneous coating product ejection rate from the print head and a supply rate to the print head from the coating product source; - the system comprises means (120, 124; 121, 35) for detecting a difference between the instantaneous ejection rate and the supply rate; and - the installation comprises a control unit configured to adjust an operating setpoint value of the coating product source as a function of the difference between the instantaneous ejection flow rate and the supply flow rate, in a direction to reduce this difference between the flow rates. - the installation comprises a coating product accumulator installed on a circuit for the circulation of the coating product, which passes through the print head; - the accumulator comprises a deformable or movable wall delimiting, at least in part, a first chamber of variable volume supplied with coating product and a second chamber of variable volume supplied with gas, under a predetermined pressure; - the predetermined pressure for supplying the second chamber of variable volume is equal to a nominal operating pressure of the print head; - the first chamber of variable volume is supplied or purged with coating product due to a difference between an instantaneous coating product ejection rate from the print head and a supply rate to the print head from the coating product source; - the system comprises means (120, 124; 121, 35) for detecting a difference between the instantaneous ejection rate and the supply rate; and - the installation comprises a control unit configured to adjust an operating setpoint value of the coating product source as a function of the difference between the instantaneous ejection flow rate and the supply flow rate, in a direction to reduce this difference between the flow rates.
A compound having a structure of Formula I: wherein the symbol --- when used in conjunction with a bond line represents a single or a double bond; wherein n is 3, 4, 5, or 6; wherein m is an integer from 0 to 6-n; wherein each X is independently selected from the group consisting of O, S, and NH; wherein each Y, each A, and each B are independently selected from the group consisting of N, CR 1, and CR 2; wherein D, E, and F are independently selected from the group consisting of CH, N, O, and S; and wherein each R 1 and each R 2 is independently selected from the group consisting of H, alkyl, aryl, electron withdrawing groups, electron releasing groups, and a transition metal. wherein the symbol --- when used in conjunction with a bond line represents a single or a double bond; wherein n is 3, 4, 5, or 6; wherein m is an integer from 0 to 6-n; wherein each X is independently selected from the group consisting of O, S, and NH; wherein each Y, each A, and each B are independently selected from the group consisting of N, CR 1, and CR 2; wherein D, E, and F are independently selected from the group consisting of CH, N, O, and S; and wherein each R 1 and each R 2 is independently selected from the group consisting of H, alkyl, aryl, electron withdrawing groups, electron releasing groups, and a transition metal.
A sound system comprising: a body comprising a central part and two side blocks (4A, 4B), said side blocks (4A, 4B) comprising substantially vertical panels, wherein each side block comprises three sound emitting elements (20, 22, 24) positioned on the vertical lateral panels of each side block except an inner panel facing towards the central part; a user interface; and an electronic circuit providing drive signals to the sound emitting elements (20, 22, 24); wherein the electronic circuit comprises a single processing chip, said processing chip comprising an output module for driving the sound emitting elements (20, 22, 24), said output module comprising processing algorithms to transform any received sound signal into multichannel drive signals corresponding to a configuration of the sound system, and whereas each sound emitting element receives a different drive signal, and whereas each drive signal corresponds to a different channel, characterized in that the sound system further comprises an adjustment module providing the output module with parameters representative of the mechanical configuration and the environment of the sound system such as angles between and/or distances between the sound emitting elements and wall or the like, wherein said adjustment module is connected to said user interface to allow a selection between several preset positions of the sound system in the environment such as against a wall, in the middle of a room or the like in order to adjust the processing algorithms to the environment of the sound system. a body comprising a central part and two side blocks (4A, 4B), said side blocks (4A, 4B) comprising substantially vertical panels, wherein each side block comprises three sound emitting elements (20, 22, 24) positioned on the vertical lateral panels of each side block except an inner panel facing towards the central part; a user interface; and an electronic circuit providing drive signals to the sound emitting elements (20, 22, 24); wherein the electronic circuit comprises a single processing chip, said processing chip comprising an output module for driving the sound emitting elements (20, 22, 24), said output module comprising processing algorithms to transform any received sound signal into multichannel drive signals corresponding to a configuration of the sound system, and whereas each sound emitting element receives a different drive signal, and whereas each drive signal corresponds to a different channel, characterized in that the sound system further comprises an adjustment module providing the output module with parameters representative of the mechanical configuration and the environment of the sound system such as angles between and/or distances between the sound emitting elements and wall or the like, wherein said adjustment module is connected to said user interface to allow a selection between several preset positions of the sound system in the environment such as against a wall, in the middle of a room or the like in order to adjust the processing algorithms to the environment of the sound system.
A power generation system (100, 200, 300) comprising: a first compressor configured to receive and compress one or more oxidants to generate a compressed oxidant; a first combustion chamber configured to receive and combust a first portion of the compressed oxidant, at least one first fuel, and a first diluent to generate a first exhaust stream; a first expander configured to receive the first exhaust stream from the first combustion chamber and generate a first gaseous exhaust stream; a second combustion chamber configured to receive and combust a second portion of the compressed oxidant, at least one second fuel, and a second diluent to generate a second exhaust stream; a second expander configured to receive the second exhaust stream from the second combustion chamber and generate a second gaseous exhaust stream; a heat recovery steam generator configured to receive, combine and cool the first and second gaseous exhaust streams (122, 172) to generate a combined exhaust stream and steam; a cooling unit configured to receive and cool the combined exhaust stream and generate a cooled recycle stream; a second compressor configured to receive and compress the cooled recycle stream to generate a compressed recycle stream; and a separator configured to receive and separate a portion of the compressed recycle stream into a separator effluent stream and a separator product stream. a first compressor configured to receive and compress one or more oxidants to generate a compressed oxidant; a first combustion chamber configured to receive and combust a first portion of the compressed oxidant, at least one first fuel, and a first diluent to generate a first exhaust stream; a first expander configured to receive the first exhaust stream from the first combustion chamber and generate a first gaseous exhaust stream; a second combustion chamber configured to receive and combust a second portion of the compressed oxidant, at least one second fuel, and a second diluent to generate a second exhaust stream; a second expander configured to receive the second exhaust stream from the second combustion chamber and generate a second gaseous exhaust stream; a heat recovery steam generator configured to receive, combine and cool the first and second gaseous exhaust streams (122, 172) to generate a combined exhaust stream and steam; a cooling unit configured to receive and cool the combined exhaust stream and generate a cooled recycle stream; a second compressor configured to receive and compress the cooled recycle stream to generate a compressed recycle stream; and a separator configured to receive and separate a portion of the compressed recycle stream into a separator effluent stream and a separator product stream.
A method for a network device, the method comprising: receiving a scheduling request from a User Equipment, UE, for a multihop transmission; and sending a first message to one or more UEs (110, 120, 130, 140) in response to the scheduling request, wherein the first message indicates sidelink resource allocation information for the one or more UEs (110, 120, 130, 140) to perform a multihop transmission, and wherein the sidelink resource allocation information comprises one or more baseline sidelink resource for one or more UEs (110, 120, 130, 140) of the multihop transmission, and relative sidelink resource allocation information for one or more UEs (110, 120, 130, 140) of the multihop transmission relative to the baseline sidelink resource. receiving a scheduling request from a User Equipment, UE, for a multihop transmission; and sending a first message to one or more UEs (110, 120, 130, 140) in response to the scheduling request, wherein the first message indicates sidelink resource allocation information for the one or more UEs (110, 120, 130, 140) to perform a multihop transmission, and wherein the sidelink resource allocation information comprises one or more baseline sidelink resource for one or more UEs (110, 120, 130, 140) of the multihop transmission, and relative sidelink resource allocation information for one or more UEs (110, 120, 130, 140) of the multihop transmission relative to the baseline sidelink resource.
A method comprising: with a processor of a first base station, determining an interference protection status of a subframe based at least in part on information indicating configurations of plural base stations, wherein the first base station receives a plurality of configurations from plural base stations and wherein determining the interference protection status of the subframe comprises: determining the subframe's interference protection status to be a protected status if each of the configurations associates the subframe with a subframe of the first type; determining the subframe's interference protection status to be a partially protected status if at least one of the configurations associates the subframe with a subframe of the first type and at least another of the configurations does not associate the subframe with a subframe of the first type; and determining the subframe's interference protection status to be an unprotected status if none of the configurations associates the subframe with a subframe of the first type, and a first configuration of the plurality of configurations indicates a first pattern of one or more subframes of a first type, and/or a second configuration of the plurality of configurations a second pattern of one or more subframes of the first type; and with a communication unit, sending the interference protection status of the subframe to a communication control device. determining the subframe's interference protection status to be a protected status if each of the configurations associates the subframe with a subframe of the first type; determining the subframe's interference protection status to be a partially protected status if at least one of the configurations associates the subframe with a subframe of the first type and at least another of the configurations does not associate the subframe with a subframe of the first type; and determining the subframe's interference protection status to be an unprotected status if none of the configurations associates the subframe with a subframe of the first type, and a first configuration of the plurality of configurations indicates a first pattern of one or more subframes of a first type, and/or a second configuration of the plurality of configurations a second pattern of one or more subframes of the first type; and with a communication unit, sending the interference protection status of the subframe to a communication control device.
A communication method, comprising: receiving, by a radio terminal, UE, from a base station, information used for determining whether to transmit information on a predetermined period for requesting a sidelink gap to the base station; determining, by the radio terminal, whether to transmit the information on the predetermined period based on the information; and transmitting, by the radio terminal to the base station, a sidelink UE information message including the information on the predetermined period for requesting the sidelink gap, upon a determination to transmit the information on a predetermined period, wherein the sidelink gap is a gap for transmitting or receiving a discovery message for discovering a proximal terminal at a frequency of a neighbor cell, the information on the predetermined period is configured to identify a transmission period for transmitting the discovery message and a reception period for receiving the discovery message, and the communication method further comprises: receiving, by the radio terminal, configuration information for configuring the sidelink gap, from the base station, wherein the configuration information is based on the information on the predetermined period. receiving, by a radio terminal, UE, from a base station, information used for determining whether to transmit information on a predetermined period for requesting a sidelink gap to the base station; determining, by the radio terminal, whether to transmit the information on the predetermined period based on the information; and transmitting, by the radio terminal to the base station, a sidelink UE information message including the information on the predetermined period for requesting the sidelink gap, upon a determination to transmit the information on a predetermined period, wherein the sidelink gap is a gap for transmitting or receiving a discovery message for discovering a proximal terminal at a frequency of a neighbor cell, the information on the predetermined period is configured to identify a transmission period for transmitting the discovery message and a reception period for receiving the discovery message, and the communication method further comprises: receiving, by the radio terminal, configuration information for configuring the sidelink gap, from the base station, wherein the configuration information is based on the information on the predetermined period. receiving, by the radio terminal, configuration information for configuring the sidelink gap, from the base station, wherein the configuration information is based on the information on the predetermined period.
An acoustic device capable of producing active noise reduction, which may be positioned on the head of a user, comprising at least one microphone able to sense a representative sound signal of ambient noise, including at least one acoustic module for active noise reduction comprising an osteophonic transducer (8, 8'), capable of being positioned on a side flank of the head of the user, and of transmitting a vibratory signal transformed by bone conduction into an acoustic signal which may be perceived by the user, connected to said microphone, said at least one acoustic module including an electronic circuit capable of generating a vibratory signal giving the possibility of attenuating the perception of said ambient noise by the user, the acoustic device being characterized in that said electronic circuit implements a filter defined by a transfer function (H FO) for noise reduction, said transfer function (H FO) being determined in order to produce noise attenuation according to direct bone conduction between the osteophonic transducer (8, 8') and the inner ear of a user located on the same side as said transducer (8, 8'), said noise reduction transfer function (H FO) depending on a ratio of a direct bone conduction transfer function (H CO) representative of said bone conduction and of an airborne conduction transfer function (H CA) representative of the conduction of an airborne acoustic signal between an outer ear and an inner ear located on a same side, and in that said transfer function is defined by the formula: H FO = − R ⋅ H b G H m. H TO wherein R is said ratio of a direct bone conduction transfer function (H CO) and of the airborne conduction transfer function (H CA), H b G is a characteristic transfer function of ambient noise, H m is the transfer function of said microphone and H TO is the transfer function of said osteophonic transducer (8,8').
Edge milling machine for milling a workpiece edge (89; 189) extending between a main side surface and a secondary side surface (86; 186) of a workpiece (85; 185), in particular a section of an edge band (87; 187) protruding beyond the workpiece edge (89; 189), wherein the edge milling machine has a guide body, in particular plate-shaped, which has a main lay-on surface for laying onto the main side surface of the workpiece (85; 185), and a drive motor for rotary driving of a tool shaft, on which a tool holder for an edge milling tool is mounted and at the free end section of which there is provided a support roller, rotatable relative to the tool shaft, for supporting the secondary side surface (86; 186), wherein the edge milling machine has a braking device with a braking body for braking the support roller, and a dust guiding device for removal of dust from the tool holder towards a dust outlet passage (27; 127), wherein the dust guiding device has at least one guide wall to delimit a dust guide chamber extending around the tool holder, and at least one dust inlet of the dust outlet passage (27; 127) is located in the dust guide chamber, wherein the dust inlet or inlets includes or include a dust inlet located on the guide body, and that the dust guiding device has at least one lay-on surface for the workpiece (85; 185) in connection with milling of an edge band (87; 187) located on the secondary side surface (86; 186) of the workpiece (85; 185), characterised in that the braking body may be fixed with the aid of fixing means relative to the dust guiding device in a braking position in which it brakes the support roller, and a release position in which it has clearance from the support roller.
A method comprising: receiving a first write request for writing system critical data to a non-volatile memory; causing (1004, 1006) system critical data to be encoded and written to the non-volatile memory using a first data protection scheme having a given data format size; and receiving a second write request for writing user data that includes non-system critical data to the non-volatile memory; characterised by causing (1010, 1012) the user data to be encoded and written to the non-volatile memory using a second data protection scheme having a same given data format size as system critical data written to the non-volatile memory according to the first data protection scheme; and the first data protection scheme comprising use of a Reed-Solomon error correction code that uses four separate Reed-Solomon codewords having overlapping system critical data. receiving a first write request for writing system critical data to a non-volatile memory; causing (1004, 1006) system critical data to be encoded and written to the non-volatile memory using a first data protection scheme having a given data format size; and receiving a second write request for writing user data that includes non-system critical data to the non-volatile memory; characterised by causing (1010, 1012) the user data to be encoded and written to the non-volatile memory using a second data protection scheme having a same given data format size as system critical data written to the non-volatile memory according to the first data protection scheme; and the first data protection scheme comprising use of a Reed-Solomon error correction code that uses four separate Reed-Solomon codewords having overlapping system critical data.