mhurhangee/patent-ind-claim-en huggingface dataset:
A fire extinguishing agent concentration measuring system comprising: a first window ; a second window positioned relative to the first window thereby defining a sensing volume between the first window and the second window; and a structure positioned between the first window and the second window, wherein the structure comprises openings located near a center between the first window and the second window, the openings fluidly connecting the sensing volume to an environment within which the fire extinguishing agent concentration measuring system is placed, wherein the structure is configured to cause fluid flowing into the sensing volume from the environment to swirl within the sensing volume; wherein the structure defines a plurality of orifices configured to direct fluid that flows from the environment into the sensing volume through the orifices to an offset dimension from an axis defined by light passing through the first window and the second window; wherein some of the plurality of orifices are nearer to the first window and some of the plurality of orifices are nearer to the second window; and wherein the structure is configured to swirl fluid moving through the sensing volume near to a surface of the first window and near to a surface of the second window. a first window ; a second window positioned relative to the first window thereby defining a sensing volume between the first window and the second window; and a structure positioned between the first window and the second window, wherein the structure comprises openings located near a center between the first window and the second window, the openings fluidly connecting the sensing volume to an environment within which the fire extinguishing agent concentration measuring system is placed, wherein the structure is configured to cause fluid flowing into the sensing volume from the environment to swirl within the sensing volume; wherein the structure defines a plurality of orifices configured to direct fluid that flows from the environment into the sensing volume through the orifices to an offset dimension from an axis defined by light passing through the first window and the second window; wherein some of the plurality of orifices are nearer to the first window and some of the plurality of orifices are nearer to the second window; and wherein the structure is configured to swirl fluid moving through the sensing volume near to a surface of the first window and near to a surface of the second window.
A system comprising a storage device , a host and peripheral devices , wherein the storage device is connected to the host , which enables the peripheral devices to send commands to the storage device , the host using a virtual memory for enabling direct memory access to the storage device for the peripheral devices registered to the virtual memory , the storage device comprising: a solid state drive comprising a nonvolatile memory and a buffer , the solid state drive configured to receive a streaming access command including a logical block address, LBA, list and a chunk size from one of the peripheral devices , and to prefetch onto the buffer requested stream data from the nonvolatile memory according to the LBA list in units of the chunk size without an additional command; and an in-storage computing block configured to sequentially read from the buffer the stream data loaded onto the buffer in units of the chunk size included in the streaming access command , the in-storage computing block accessing a streaming region registered on said virtual memory to thereby provide results of the sequential read to the virtual memory ; wherein the buffer is mapped onto a virtual memory address of said registered streaming region , and wherein the chunk size is a management unit of the stream data. a solid state drive comprising a nonvolatile memory and a buffer , the solid state drive configured to receive a streaming access command including a logical block address, LBA, list and a chunk size from one of the peripheral devices , and to prefetch onto the buffer requested stream data from the nonvolatile memory according to the LBA list in units of the chunk size without an additional command; and an in-storage computing block configured to sequentially read from the buffer the stream data loaded onto the buffer in units of the chunk size included in the streaming access command , the in-storage computing block accessing a streaming region registered on said virtual memory to thereby provide results of the sequential read to the virtual memory ; wherein the buffer is mapped onto a virtual memory address of said registered streaming region , and wherein the chunk size is a management unit of the stream data.
Electrostatic filter unit for a vapour extraction apparatus , which comprises an ionisation unit with at least one ionisation element and at least one counter-electrode and a separation unit , wherein the counter-electrode has at least one opening and the ionisation element comprises an ionisation electrode frame , which consists of electrically conductive material, and at least one needle-shaped ionisation electrode with a tip , to which ionisation electrode frame the ionisation electrode is fastened, the ionisation electrode is perpendicular to the opening of the counter-electrode and the tip lies in the opening of the counter-electrode , wherein the ionisation electrode frame and the ionisation electrode have an insulation coating, the coating is omitted on the tip of the ionisation electrode and at least one contact point of the ionisation electrode frame of the ionisation element , the ionisation unit has a housing , in which the ionisation element and the counter-electrode are accommodated, the counter-electrode is accommodated on the front side of the housing, the counter-electrode has a platform and forms the front side of the ionisation unit , via which air enters into the ionisation unit .
Optical unit (BO) intended to equip a vehicle and comprising a box (BB) delimiting a cavity (CB) wherein is installed a mask (MB) to which is coupled in a front portion (PVM), a translucid screen (ET) closing said cavity (CB), characterised in that said front portion (PVM) of the mask (MB) comprises a first peripheral edge (BP1) comprising on an inner face (FI), at least one first protrusion (P1j) equipped with a first coupling means (MC1), and on an outer face (FE), a second coupling means (MC2), and in that said translucid screen (ET) comprises a front portion (PVE) comprising a second peripheral edge (BP2) i) to which is secured at least one first arm (B1) oriented rearwards and extended by a second arm (B2) facing said second peripheral edge (BP2) and comprising a third coupling means (MC3) engaging with said first coupling means (MC1) to induce a rear immobilisation of said translucid screen (ET) with respect to said mask (MB), and ii) comprising a fourth coupling means (MC4) engaging with said second coupling means (MC2) to induce a front immobilisation of said translucid screen (ET) with respect to said mask (MB).
Electric current transducer comprising a current transducer unit having a housing , a magnetic field detector mounted within the housing, first and second primary conductors , and a central passage extending through the housing and magnetic field detector for receiving said first and second primary conductors therethrough carrying primary currents of opposite direction forming a residual current to be measured, the electric current transducer further comprising a primary conductor device comprising an insulating support, the first and second primary conductors being mounted to the insulating support, the first and second primary conductor being formed from cylindrical conducting wires having connection portions for connection to an external circuit and measurement portions extending through the central passage , characterized in that each measurement portion comprise a flattened shape offset from a center axis of the cylindrical conducting wire towards a center of the central passage, the measurement portion of the first primary conductor being separated from the measurement portion of the second primary conductor by a separating wall of the insulating support.
A method for wireless communications, comprising: mapping, by a base station , timing information related to a synchronization signal block index within a synchronization signal burst and different synchronization signal burst sets in a wireless communication network to a demodulation reference signal sequence on a physical broadcast channel, and transmitting, by the base station , the demodulation reference signal sequence to a terminal. wherein the demodulation reference signal sequence includes at least a part of the information related to the synchronization signal block index, and wherein the synchronization signal block index is indicated by a combination of the demodulation reference signal sequence and information bits carried by the physical broadcast channel. mapping, by a base station , timing information related to a synchronization signal block index within a synchronization signal burst and different synchronization signal burst sets in a wireless communication network to a demodulation reference signal sequence on a physical broadcast channel, and transmitting, by the base station , the demodulation reference signal sequence to a terminal. wherein the demodulation reference signal sequence includes at least a part of the information related to the synchronization signal block index, and wherein the synchronization signal block index is indicated by a combination of the demodulation reference signal sequence and information bits carried by the physical broadcast channel.
A MEMS resonator having a resonant frequency defined for an operating temperature, comprising: a first electrical contact ; a second electrical contact ; a moveable beam structure electrically coupled to the first and the second electrical contacts ; a temperature sensor , placed in proximity to the moveable beam structure, to measure the actual operating temperature; a control circuitry , coupled to the temperature sensor , to generate control information and provide the control information; and an electrical source , coupled to the first and second electrical contacts , to provide an electrical current from the first electrical contact to the second electrical contact through the moveable beam structure in dependency of the control information provided by the control circuitry and thereby resistively heating the moveable beam structure to maintain the temperature of the moveable beam structure at the operating temperature or within a predetermined range of operating temperatures while the MEMS resonator is in operation. a first electrical contact ; a second electrical contact ; a moveable beam structure electrically coupled to the first and the second electrical contacts ; a temperature sensor , placed in proximity to the moveable beam structure, to measure the actual operating temperature; a control circuitry , coupled to the temperature sensor , to generate control information and provide the control information; and an electrical source , coupled to the first and second electrical contacts , to provide an electrical current from the first electrical contact to the second electrical contact through the moveable beam structure in dependency of the control information provided by the control circuitry and thereby resistively heating the moveable beam structure to maintain the temperature of the moveable beam structure at the operating temperature or within a predetermined range of operating temperatures while the MEMS resonator is in operation.
Take-up winding machine for winding a plurality of threads so as to form packages, having a plurality of winding stations (1.1 - 1.4) which are disposed beside one another along at least one winding spindle (6.1) that is held in a protruding manner, having a plurality of overhead thread guides (3.1 - 3.4) which in the thread run are disposed upstream of the winding stations (1.1 - 1.4), having at least one godet which is disposed laterally beside the winding stations (1.1 - 1.4) and which is aligned transversely to the winding spindle (6.1) and in the thread run is disposed upstream of the overhead thread guides (3.1 - 3.4), and having an auxiliary installation for threading the threads into the overhead thread guides (3.1 - 3.4), wherein the auxiliary installation has a threading-in thread guide having a plurality of guide grooves (16.1 - 16.4) which are configured beside one another, wherein the threading-in thread guide by way of a drive means is guidable in a guide track , and wherein the guide track extends along the overhead thread guides (3.1 - 3.4) and has an run-in track (17.1) and a return-run track (17.2), characterized in that the run-in track (17.1) above the overhead thread guides (3.1 - 3.4) and the return-run track (17.2) below the overhead thread guides (3.1 - 3.4) form a vertically aligned guide plane of the threading-in thread guide , and in that an angle α in the range from 1° to 15° is formed between the guide plane of the threading-in thread guide and an alignment of the overhead thread guides (3.1 - 3.4).
A closing device for a container such as a knapsack or a rucksack, at least comprising a receiving part which is arranged on an outer wall of the container and fastened there, which has a trough-like receiving and fastening region , and a holding part which is arranged and fastened on a cover part of the container which can be pivoted or is pivoted relative to the outer wall, the holding part having a connecting and locking region projecting in the direction of the receiving region , which, for connecting and locking the holding part to the receiving part, can be inserted or is inserted into the trough-like receiving region thereof and, in the inserted position, is held and locked there by means of hook-like projections which engage behind parts of the trough-like receiving region, actuating means being arranged on the side of the holding part facing away from the receiving part, which, when actuated, move the hook-like projections into a position in which hooking behind parts of the trough-like receiving area is suppressed, so that the cover part together with the holding part can be removed from the receiving part arranged on the outer wall and can be pivoted relative to the outer wall, wherein the holding part has a base plate with thrust elements which can be displaced towards and away from each other relative to the base plate as a first actuating means, wherein a projecting web which engages through the cover part and engages in the receiving region of the holding part and hooks there is arranged on each thrust element , wherein one hook-like projection each is formed at the free end of the web for hooking and thus for locking the holding part to the receiving part, wherein the thrust elements are each held in a position approaching each other by the force of a first spring , and wherein the hook-like projections engage behind parts of the trough-like receiving region in the position of the thrust elements further away from each other and hook there (at 8), wherein furthermore an actuating handle pivotable relative to the base plate is arranged as a further actuating means, which actuating handle is held in the locked position against the force of a second spring, wherein, in this position, parts of the actuating handle are arranged between the thrust elements and lock the thrust elements or prevent the thrust elements from approaching.
A handover method, comprising the following steps in the given order: receiving , by a target master base station, a handover request for a user equipment involved in dual connectivity communication from a source master base station, wherein the handover request is used to request to hand over the user equipment from the source master base station to the target master base station; sending , by the target master base station, a handover request acknowledgment message to the source master base station based on the handover request, wherein the handover request acknowledgment message is used to indicate that the target master base station allows the user equipment to be handed over from the source master base station to the target master base station; sending , by the source master base station, notification information to the user equipment, wherein the notification information comprises handover information for a handover from the source master base station to the target master base station; establishing , by the target master base station, a communication connection to the user equipment before a secondary base station receives a release request from the source master base station, wherein the release request is used to instruct to release a connection related to the user equipment between the source master base station and the secondary base station; and adding , by the target master base station, the secondary base station for the user equipment. receiving , by a target master base station, a handover request for a user equipment involved in dual connectivity communication from a source master base station, wherein the handover request is used to request to hand over the user equipment from the source master base station to the target master base station; sending , by the target master base station, a handover request acknowledgment message to the source master base station based on the handover request, wherein the handover request acknowledgment message is used to indicate that the target master base station allows the user equipment to be handed over from the source master base station to the target master base station; sending , by the source master base station, notification information to the user equipment, wherein the notification information comprises handover information for a handover from the source master base station to the target master base station; establishing , by the target master base station, a communication connection to the user equipment before a secondary base station receives a release request from the source master base station, wherein the release request is used to instruct to release a connection related to the user equipment between the source master base station and the secondary base station; and adding , by the target master base station, the secondary base station for the user equipment.
An arrangement structure of a stacker and a reclaimer , comprising a stacker , a reclaimer , a stacker travelling track , a reclaimer travelling track, a material input conveyor , a material output conveyor , a material storage yard and a closed material storage shed , characterized in that the reclaimer travelling track comprises an upper travelling track of the reclaimer and a lower travelling track of the reclaimer ; and the upper travelling track of the reclaimer and the stacker travelling track are arranged on the same platform or respectively arranged on an upper platform and a lower platform , wherein a main rack of the reclaimer straddles the stacker and the material input conveyor ; and an upper end and a lower end of the main rack are respectively supported on the upper travelling track of the reclaimer and the lower travelling track of the reclaimer, and wherein the main rack comprises a vertical rack, an arch rack and an inclined rack connected sequentially; the vertical rack is supported on the upper travelling track of the reclaimer; the arch rack straddles above the stacker and the material input conveyor ; and the inclined rack is supported on the lower travelling track of the reclaimer .
Method for measuring the lambda value in a combustion chamber of a burner operated with gaseous or liquid fuel, wherein in a flame region an ionisation flow (I) is generated in the flame region by means of an ionisation electrode , a counter electrode and a voltage source , wherein further in the case of a constant performance of the combustion chamber the ionisation flow (I) is measured for at least two different voltages (U) applied to the ionisation electrode and therefrom in each case the total resistance (R) of a total circuit is determined and wherein on the basis of calibration curves or calibration data the lambda value is determined from the specified total resistances (R).
Method for managing the cellular transfer of information with at least one relay interposed between a base station and terminals , the relay , the base station and the terminals being entities of a network architecture comprising a plurality of entities , the network architecture being adapted to implement telecommunications between the entities , the entities being also a mobile managing entity , named MME, and a controller separate from the MME , the base station comprising a radio transceiver and a virtual machine , the virtual machine and the relay having a configuration controlled by the controller , the method comprising, at the level of the relay , managing the transfer of information from at least one layer selected from among a Radio Resource Control layer, named RRC layer, a Non Access Stratum layer, named NAS layer, and a Packet Data Convergence Protocol layer, named PDCP layer, to at least one terminal, the method being characterize in that the configuration of the virtual machine and of the relay is chosen in a periodical way between three operating modes: - a first operating mode in which the method comprises a step of encapsulation of the RRC layer in a PDCP layer specific to the terminal and then in a PDCP layer specific to the relay , - a second operating mode in which the used RRC layer is a RRC layer specific to the relay , and - a third operating mode in which the method comprises a step of encapsulation of the RRC layer in a PDCP layer specific to the terminal, the RRC layer being transmitted to/from the relay and without PDCP layer specific to the relay . - a first operating mode in which the method comprises a step of encapsulation of the RRC layer in a PDCP layer specific to the terminal and then in a PDCP layer specific to the relay , - a second operating mode in which the used RRC layer is a RRC layer specific to the relay , and - a third operating mode in which the method comprises a step of encapsulation of the RRC layer in a PDCP layer specific to the terminal, the RRC layer being transmitted to/from the relay and without PDCP layer specific to the relay .
A communication method, wherein the method comprises: determining, by a terminal device, that uplink transmission and sidelink transmission both exist; and when a first condition is met, performing, by the terminal device, the uplink transmission, wherein the first condition comprises a priority corresponding to an uplink scheduling request, UL SR, sent on a physical uplink control channel, PUCCH, is higher than the priority indicated by the first threshold, the priority corresponding to the UL SR is a priority of a logical channel for triggering the UL SR. determining, by a terminal device, that uplink transmission and sidelink transmission both exist; and when a first condition is met, performing, by the terminal device, the uplink transmission, wherein the first condition comprises a priority corresponding to an uplink scheduling request, UL SR, sent on a physical uplink control channel, PUCCH, is higher than the priority indicated by the first threshold, the priority corresponding to the UL SR is a priority of a logical channel for triggering the UL SR.