mhurhangee/ep-ind-claims huggingface dataset:
A battery pack comprising: a plurality of electric cells; and a packaging case that accommodates the plurality of electric cells to align the plurality of electric cells at least in a first direction, wherein each adjacent ones of the plurality of electric cells in the first direction defines a ventilation space, the packaging case defines first and second passages (R1, R2) that extend in the first direction and that are arranged to have the plurality of electric cells located between the first and second passages (R1, R2) in a second direction intersecting the first direction, wherein gas supplied to the first passage flows through the ventilation spaces to the second passage, and the packaging case includes a flow rate limitation means that is arranged in an upstream area of the first passage to limit a flow rate of the gas flowing into at least one of the ventilation spaces, which communicate with the upstream area of the first passage, to a predetermined flow rate, wherein the packaging case includes an inner wall surface, the first passage is defined between an alignment of the electric cells positioned at an outermost end in the second direction and the inner wall surface of the packaging case, and the flow rate limitation means is arranged to slope downward from the alignment of the electric cells to the inner wall surface of the packaging case. a plurality of electric cells; and a packaging case that accommodates the plurality of electric cells to align the plurality of electric cells at least in a first direction, wherein each adjacent ones of the plurality of electric cells in the first direction defines a ventilation space, the packaging case defines first and second passages (R1, R2) that extend in the first direction and that are arranged to have the plurality of electric cells located between the first and second passages (R1, R2) in a second direction intersecting the first direction, wherein gas supplied to the first passage flows through the ventilation spaces to the second passage, and the packaging case includes a flow rate limitation means that is arranged in an upstream area of the first passage to limit a flow rate of the gas flowing into at least one of the ventilation spaces, which communicate with the upstream area of the first passage, to a predetermined flow rate, wherein the packaging case includes an inner wall surface, the first passage is defined between an alignment of the electric cells positioned at an outermost end in the second direction and the inner wall surface of the packaging case, and the flow rate limitation means is arranged to slope downward from the alignment of the electric cells to the inner wall surface of the packaging case. the packaging case includes an inner wall surface, the first passage is defined between an alignment of the electric cells positioned at an outermost end in the second direction and the inner wall surface of the packaging case, and the flow rate limitation means is arranged to slope downward from the alignment of the electric cells to the inner wall surface of the packaging case.
A method for transmitting signals to a receiver at a transmitter, the method comprising: multiplexing, at a transmitter processor, a plurality of pieces of data for a plurality of connections to be transmitted to one specific receiver, and configuring a multiplexed Medium Access Control, MAC, Packet Data Unit, PDU, which includes a MAC header part for transmitting the multiplexed data and includes a MAC PDU payload including the multiplexed data; and transmitting, at the transmitter, the multiplexed MAC PDU to the specific receiver; wherein the MAC header part includes a first header part including a generic MAC header and includes a second header part including an extended header indicator serving as a one-bit indicator representing whether an extended header is present for each flow ID indicating each of the plurality of connections, and wherein the MAC header part selectively further includes a third header part including the extended header for each flow ID according to the extended header indicator for each flow ID. multiplexing, at a transmitter processor, a plurality of pieces of data for a plurality of connections to be transmitted to one specific receiver, and configuring a multiplexed Medium Access Control, MAC, Packet Data Unit, PDU, which includes a MAC header part for transmitting the multiplexed data and includes a MAC PDU payload including the multiplexed data; and transmitting, at the transmitter, the multiplexed MAC PDU to the specific receiver; wherein the MAC header part includes a first header part including a generic MAC header and includes a second header part including an extended header indicator serving as a one-bit indicator representing whether an extended header is present for each flow ID indicating each of the plurality of connections, and wherein the MAC header part selectively further includes a third header part including the extended header for each flow ID according to the extended header indicator for each flow ID.
Fluid valve, comprising: a valve housing, an actuatable valve body within the valve housing, and at least one elastically deformable seal, wherein the seal has a first end side (S I) for sealing contact against the valve body and a second end side (S II) for sealing contact against the valve housing, characterized in that, on the seal, at the inside and/or at the outside with respect to a seal opening, there is formed a multiplicity of spiral-shaped recesses (10, 12) which are formed in certain portions and which extend as such from the second end side (S II) in a longitudinal direction (X - X) and in a circumferential direction of the seal and thus provide at least that end of the seal which faces toward the second end side (S II) and from which they originate with such elastic deformability that the seal is elastically deformable by the valve body, with which the seal interacts, in order to seal off a connection region of the fluid valve. a valve housing, an actuatable valve body within the valve housing, and at least one elastically deformable seal, wherein the seal has a first end side (S I) for sealing contact against the valve body and a second end side (S II) for sealing contact against the valve housing, characterized in that, on the seal, at the inside and/or at the outside with respect to a seal opening, there is formed a multiplicity of spiral-shaped recesses (10, 12) which are formed in certain portions and which extend as such from the second end side (S II) in a longitudinal direction (X - X) and in a circumferential direction of the seal and thus provide at least that end of the seal which faces toward the second end side (S II) and from which they originate with such elastic deformability that the seal is elastically deformable by the valve body, with which the seal interacts, in order to seal off a connection region of the fluid valve.
A container pack comprising: a first group of containers, a second group of containers, and a substrate selected from the group consisting of paperboard and plastic material, wherein the first group of containers and the second group of containers each comprise at least one individual container, and wherein the at least one individual container of the first group of containers and the at least one individual container of the second group of containers, is bonded by means of at least one spot of hot melt adhesive to opposing sides of the substrate, the substrate being located between the first group of containers and the second group of containers, characterised in that the substrate is perforated such that each spot of the hot melt adhesive on the substrate is enclosed by a perforation line so that when an individual container is removed off the substrate, there is a clean cut of the perforation line. a first group of containers, a second group of containers, and a substrate selected from the group consisting of paperboard and plastic material, wherein the first group of containers and the second group of containers each comprise at least one individual container, and wherein the at least one individual container of the first group of containers and the at least one individual container of the second group of containers, is bonded by means of at least one spot of hot melt adhesive to opposing sides of the substrate, the substrate being located between the first group of containers and the second group of containers, characterised in that the substrate is perforated such that each spot of the hot melt adhesive on the substrate is enclosed by a perforation line so that when an individual container is removed off the substrate, there is a clean cut of the perforation line.
Horizontal packaging machine comprising a sealing rollers block and a frame, the sealing rollers block comprising a plurality of roller assemblies distributed in series along a horizontal longitudinal axis of the machine and a transmission block attached to the frame and comprising at least one motor (2.0) and a transmission mechanism (2.1) configured for transmitting the rotation of the motor (2.0) to all the roller assemblies, each roller assembly comprising two opposing rollers (1.1), one on each side of the longitudinal axis of the machine, and a transmission assembly (1.0) for transmitting the rotation of the motor (2.0) to its two rollers (1.1), and the two rollers (1.1) of at least one of said roller assemblies being configured for sealing together two superimposing films or two opposing longitudinal ends of one and the same tubular-shaped film, when said films or ends are moved through said rollers (1.1), characterized in that at least one roller assembly is independent of the rest of the roller assemblies and movable with respect to the transmission block along a determined path which is linear and transverse to the longitudinal axis of the machine, said movable roller assembly being configured for cooperating with the transmission mechanism (2.1) in an operative position in which said transmission mechanism (2.1) transmits the rotation of the motor (2.0) of the transmission block to said movable roller assembly as a result of said cooperation, and for abandoning said operative position or being arranged in said operative position by means of said movement, the transmission mechanism (2.1) comprising a transmission gear wheel (2.2) rotating integrally with the motor (2.0) of the transmission block, and the transmission assembly (1.0) of the movable roller assembly comprising a gear wheel (1.2) which, with said roller assembly in the operative position, cooperates with the transmission gear wheel (2.2) of said transmission mechanism (2.1), the machine comprising a structure with a structure segment (3.0) configured for supporting the movable roller assembly, the transmission gear wheel (2.2) and the gear wheel (1.2) of the roller assembly being aligned on said determined path, when said roller assembly is supported in the corresponding structure segment (3.0), and a blocking device (3.5) configured for impeding the movement of the movable roller assembly when said movable roller assembly is in the operative position.
An intravaginal composition comprising from 0.001% to 20% by weight of a vitamin E compound, from 0.01% to 20% by weight of a gibberellic acid compound, and from 0.01% to 20% by weight of a jasmonic acid compound, and a pharmaceutically acceptable carrier, diluent or excipient; wherein the composition can increase growth of epithelial or epidermal cells, increase expression of mucin-4 or promote faster cell turnover in the vaginal cavity of a female mammal, for use in improving vaginal health.
A clock control system for generating a clock signal having an operating frequency set to a first frequency corresponding to a first junction temperature, comprising: a thermal sensor operative to detect a junction temperature corresponding to at least a portion of a circuit on a die; a temperature dependent dynamic overclock generator circuit, operatively coupled to the thermal sensor, and operative to increase the operating frequency of the clock signal above a nominal operating frequency, when the detected junction temperature is below a maximum rated junction temperature; characterized in that it further comprises: memory comprising data representing junction temperatures over a temperature operating range with corresponding clock signal frequencies, wherein the data representing junction temperatures over a temperature operating range with corresponding clock signal frequencies account for a predetermined physical installation of the circuit and are organized as at least one lookup table. a thermal sensor operative to detect a junction temperature corresponding to at least a portion of a circuit on a die; a temperature dependent dynamic overclock generator circuit, operatively coupled to the thermal sensor, and operative to increase the operating frequency of the clock signal above a nominal operating frequency, when the detected junction temperature is below a maximum rated junction temperature; memory comprising data representing junction temperatures over a temperature operating range with corresponding clock signal frequencies, wherein the data representing junction temperatures over a temperature operating range with corresponding clock signal frequencies account for a predetermined physical installation of the circuit and are organized as at least one lookup table.
A communication system for enabling communication between vehicles in a platoon, the system comprising: a first optical emitter and a first optical receiver, configured to be directed in a forward direction of a vehicle, a second optical emitter and a second optical receiver, configured to be directed in a backward direction of the vehicle; and a controller in communication with emitters and the receivers, the controller configured to: during an initialization phase, determine a position of the vehicle within the platoon and the identity of each vehicle in the platoon, based on signals detected by said first and/or second receivers; and during a data transmission phase, participate in a token-based data transmission by evaluating a signal received by one of said first or second receivers and causing the emission of a signal either by the corresponding one of said first or second emitters that received the signal should the vehicle be the first or last vehicle in the platoon, or by the other one of said first or second emitters should the vehicle not be the first or last vehicle in the platoon. a first optical emitter and a first optical receiver, configured to be directed in a forward direction of a vehicle, a second optical emitter and a second optical receiver, configured to be directed in a backward direction of the vehicle; and a controller in communication with emitters and the receivers, the controller configured to: during an initialization phase, determine a position of the vehicle within the platoon and the identity of each vehicle in the platoon, based on signals detected by said first and/or second receivers; and during a data transmission phase, participate in a token-based data transmission by evaluating a signal received by one of said first or second receivers and causing the emission of a signal either by the corresponding one of said first or second emitters that received the signal should the vehicle be the first or last vehicle in the platoon, or by the other one of said first or second emitters should the vehicle not be the first or last vehicle in the platoon. during an initialization phase, determine a position of the vehicle within the platoon and the identity of each vehicle in the platoon, based on signals detected by said first and/or second receivers; and during a data transmission phase, participate in a token-based data transmission by evaluating a signal received by one of said first or second receivers and causing the emission of a signal either by the corresponding one of said first or second emitters that received the signal should the vehicle be the first or last vehicle in the platoon, or by the other one of said first or second emitters should the vehicle not be the first or last vehicle in the platoon.
A communication method, comprising: generating, by an artificial intelligence, AI, protocol layer of a first access network device, an AI parameter, wherein the AI protocol layer of the first access network device is an upper layer of a radio resource control, RRC, protocol layer of the first access network device; sending, by the first access network device, the AI parameter to a terminal device, wherein the AI parameter is used to indicate AI data that needs to be obtained and an AI data obtaining manner; and receiving, by the first access network device, the AI data from the terminal device; wherein the AI parameter comprises a first AI parameter, and the first AI parameter is sent by using a broadcast AI system information block, AI SIB; wherein the AI parameter further comprises a second AI parameter, the second AI parameter is sent by using RRC dedicated signaling, and a priority of the second AI parameter is higher than a priority of the first AI parameter; and wherein the second AI parameter is determined by the first access network device based on AI capability information of the terminal device. generating, by an artificial intelligence, AI, protocol layer of a first access network device, an AI parameter, wherein the AI protocol layer of the first access network device is an upper layer of a radio resource control, RRC, protocol layer of the first access network device; sending, by the first access network device, the AI parameter to a terminal device, wherein the AI parameter is used to indicate AI data that needs to be obtained and an AI data obtaining manner; and receiving, by the first access network device, the AI data from the terminal device; wherein the AI parameter comprises a first AI parameter, and the first AI parameter is sent by using a broadcast AI system information block, AI SIB; wherein the AI parameter further comprises a second AI parameter, the second AI parameter is sent by using RRC dedicated signaling, and a priority of the second AI parameter is higher than a priority of the first AI parameter; and wherein the second AI parameter is determined by the first access network device based on AI capability information of the terminal device.
A temperature-dependent switch, having a housing and a temperature-dependent switching mechanism arranged therein, which is configured to switch, depending on its temperature, between a closed position, in which the switching mechanism establishes an electrically conductive connection between a first external terminal and a second external terminal, and an open position, in which the temperature-dependent switching mechanism disconnects the electrically conductive connection, wherein the two external terminals (14, 16) are led parallel alongside each other out of the housing in such a way that an upper side of the first external terminal lies with an upper side of the second external terminal in a common connection plane, and wherein arranged inside the housing is an electrical heating resistor component, which is electrically connected in parallel with the switching mechanism and has on a connection side a first contact area, which electrically contacts the upper side of the first external terminal, and a second contact area, which electrically contacts the upper side of the second external terminal, wherein the housing comprises an insulating material carrier, which carries a first stationary electrode electrically connected to the first external terminal and a second stationary electrode electrically connected to the second external terminal, wherein the temperature-dependent switching mechanism is arranged inside the housing in a recess of the insulating material carrier between the first and the second electrode (18, 20), characterized in that the insulating material carrier keeps the first stationary electrode and the second stationary electrode at a distance from each other along a vertical direction (h), in that the first electrode is electrically connected to the first external terminal by way of a line connecting element aligned transversely in relation to the two electrodes (18, 20) and arranged in the housing, and in that the first and the second external terminal (14, 16) are led through the insulating material carrier at the same height with respect to the vertical direction (h).
Coating material for the production of a coating containing at least - 15 to 70 % by weight of at least one CH-acidic compound A selected from compounds of the formula with R being hydrogen, an alkyl group or aryl group, Y being an alkyl group, aralkyl group, aryl group, alkoxy group or an amino group, and with Y' being an alkyl group, aralkyl group, aryl group, alkoxy group or an amino group, - 4 to 40 % by weight of at least one vinylogous carbonyl compound B selected from acrylates and maleates, - 0.1 to 15 % by weight of at least one latent base catalyst C, - 0.00001 to 10 % by weight of at least one light stabilizer selected from the group comprising free-radical scavengers, UV absorbers, quenching agents and peroxide decomposers, - 0.00001 to 20 % by weight of at least one open-time extender selected from the group comprising basic NH functional compounds with a pK a value of between 4 and 14, and, - 0.00001 to 20 % by weight of at least one pot life extender selected from the group comprising alcohols with up to 6 carbon atoms, and showing an evaporation number of below 35. each based on the total quantity of the coating material. - 15 to 70 % by weight of at least one CH-acidic compound A selected from compounds of the formula with R being hydrogen, an alkyl group or aryl group, Y being an alkyl group, aralkyl group, aryl group, alkoxy group or an amino group, and with Y' being an alkyl group, aralkyl group, aryl group, alkoxy group or an amino group, R being hydrogen, an alkyl group or aryl group, Y being an alkyl group, aralkyl group, aryl group, alkoxy group or an amino group, and with Y' being an alkyl group, aralkyl group, aryl group, alkoxy group or an amino group, - 4 to 40 % by weight of at least one vinylogous carbonyl compound B selected from acrylates and maleates, - 0.1 to 15 % by weight of at least one latent base catalyst C, - 0.00001 to 10 % by weight of at least one light stabilizer selected from the group comprising free-radical scavengers, UV absorbers, quenching agents and peroxide decomposers, - 0.00001 to 20 % by weight of at least one open-time extender selected from the group comprising basic NH functional compounds with a pK a value of between 4 and 14, and, - 0.00001 to 20 % by weight of at least one pot life extender selected from the group comprising alcohols with up to 6 carbon atoms, and showing an evaporation number of below 35.