mhurhangee/patent-ind-claim-en huggingface dataset:
A vehicle communication device comprising: a first communication module and a second communication module that are mounted on a vehicle , are configured to wirelessly communicate with a plurality of access points (AP), and are of a same communication standard; and a controller that is configured to control the first communication module and the second communication module , wherein the controller is configured to control the first communication module and the second communication module on a basis of radio field intensity of the first communication module and the second communication module with respect to the plurality of access points (AP), characterized in that the controller is configured to control the first communication module and the second communication module further on a basis of a predetermined threshold, and to prohibit connection of the first communication module and the second communication module with the access points (AP) in a case where the radio field intensity of the first communication module and the second communication module is lower than the threshold, wherein the controller is configured to control in such a manner that one of the first communication module and the second communication module is communicably connected to a first access point (AP1) and the other of the first communication module and the second communication module prepares for connection with a second access point (AP2) which access point is different from the first access point (AP1), and the controller is configured to change the threshold higher as a speed of the vehicle becomes higher. a first communication module and a second communication module that are mounted on a vehicle , are configured to wirelessly communicate with a plurality of access points (AP), and are of a same communication standard; and a controller that is configured to control the first communication module and the second communication module , wherein the controller is configured to control the first communication module and the second communication module on a basis of radio field intensity of the first communication module and the second communication module with respect to the plurality of access points (AP), characterized in that the controller is configured to control the first communication module and the second communication module further on a basis of a predetermined threshold, and to prohibit connection of the first communication module and the second communication module with the access points (AP) in a case where the radio field intensity of the first communication module and the second communication module is lower than the threshold, wherein the controller is configured to control in such a manner that one of the first communication module and the second communication module is communicably connected to a first access point (AP1) and the other of the first communication module and the second communication module prepares for connection with a second access point (AP2) which access point is different from the first access point (AP1), and the controller is configured to change the threshold higher as a speed of the vehicle becomes higher.
A data processing method, comprising: determining (S102), by a first terminal, a range of data demodulation reference signal, DMRS, ports occupied by at least one second terminal according to a joint encoding table selected from multiple joint encoding tables, and a number of codewords corresponding to a physical downlink shared channel, PDSCH, of the first terminal; and processing (S104), by the first terminal, data of the first terminal according to the range of the DMRS ports occupied by the at least one second terminal; wherein the at least one second terminal and the first terminal are Multi-User Multiple-Input Multiple-Output, MU-MIMO, terminals, wherein each of the multiple joint encoding tables corresponds to one or more DMRS groups including the DMRS ports occupied by the at least one second terminal, each of the multiple joint tables being a table including a mapping between a value indicated by a Downlink Control Information, DCI, and the number of the layers corresponding to the PDSCH of the first terminal, and a DMRS port of the PDSCH of the first terminal. determining (S102), by a first terminal, a range of data demodulation reference signal, DMRS, ports occupied by at least one second terminal according to a joint encoding table selected from multiple joint encoding tables, and a number of codewords corresponding to a physical downlink shared channel, PDSCH, of the first terminal; and processing (S104), by the first terminal, data of the first terminal according to the range of the DMRS ports occupied by the at least one second terminal;
Separator, in particular ballistic separator for separating mixed waste materials, wherein at least two paddles and/or strips arranged adjacent to one another are movably arranged in a frame (I) and thus form a base (II), wherein the base is arranged with an incline with respect to the installation surface of the separator in the frame (I), and the base (II) is mounted on at least one side at and/or on a shaft on a paddle holder in such a way that the base (II) can be set into a rotational movement, wherein a drive unit is provided for generating the rotational movement, which drives the at least one shaft, characterised in that, the shaft is provided as an eccentrically mounted outer tube , as an eccentric tube , in which eccentric tube eccentric disks are attached and/or fixed on an inner shaft , a bearing is provided between eccentric disk and eccentric tube , and the paddle holder is arranged on the eccentric tube , that at least two eccentric tubes arranged adjacent to one another are provided, the inner shafts of which have a rotational angle offset, that the paddle holders are formed from leaf spring elements and that the leaf spring elements of the paddle holders are mounted in such a way that they allow only a longitudinal play to prevent the paddles from contacting each other on the flanks thereof.
Tunnel boring machine with a cutting wheel , with a number of driving presses with which the cutting wheel can be displaced in a driving direction, with a driving press control unit with which the driving presses or groups of driving presses can be controlled, and with visualization means which are designed to visualize an actual total pressure centre resulting from the pressure effect of the driving presses or groups of driving presses , characterized in that input means are provided which are designed to specify a target total driving force (F ges ), that the visualization means are designed to display a target total pressure centre and the actual total pressure centre , that a control unit connected to the driving press control unit is present, which features means for influencing the actual total pressure centre by changing coordinate values (CoT x , CoT Y ) of the target total pressure centre in a coordinate system related to the tunnel boring machine for at least approximating the actual total pressure centre to the target total pressure centre , and that the driving press control unit is designed to convert and regulate the change in the coordinate values (CoT x , CoT Y ) of the target total pressure centre into pressure value changes when controlling the driving presses or groups of driving presses .
A mold composition for casting a titanium-containing article, comprising, by weight of the casting mold composition after firing: from 5% by weight to 50% calcium titanate; more than 30% of a calcium aluminate cement comprising, as a weight fraction of the cement, 0.05 to 0.95 of calcium monoaluminate; and from 30% to 70% of alumina. from 5% by weight to 50% calcium titanate; more than 30% of a calcium aluminate cement comprising, as a weight fraction of the cement, 0.05 to 0.95 of calcium monoaluminate; and from 30% to 70% of alumina.
An electromagnetic material for an inductance operating at cryogenic temperatures comprising, in an electrically insulating matrix , metal nanoparticles with superparamagnetic behavior of size less than or equal to 30 nm.
Magnet device consisting of a drive tool and a magnetically influenceable locking ram above this located in a protective housing and having a guide pin that is adjustable in the direction of its longitudinal axis by rotating and to which together with this rotatable guide pin a circular diametrally magnetised magnet part is fixed, whereby the drive tool has a drive magnet part that influences the magnet part as part of the magnet device, whereby the protective housing together with the locking ram , the guide pin and the magnet part forms another part of the magnet device, characterised in that several diametrally magnetised rod magnets serving as the magnet part are positioned around the guide pin fixed at the guide pin and showing with their respective separating layer plane between the respective north and south pole (N/S) towards the central axis of the guide pin and are arranged running in the direction of the central axis , and alternately influenceable by the drive magnet part .
An apparatus for the automatic loading/unloading of parts (G,G',F) for a machine for processing rod-like elements, said apparatus comprising: - a longitudinally extended guide , - at least one grip arm which is extended at right angles to said guide and can slide along it, said at least one grip arm having a plurality of grippers arranged along its axis of extension, and - at least one carriage for the storage of said parts (G,G',F), with an axis of extension that is parallel to the axis of extension of said at least one arm , said at least one carriage having a plurality of superimposed levels for the accommodation of said parts (G,G',F) said at least one arm is coupled at a first end to said guide, characterized in that the apparatus comprises second means for the vertical movement of said at least one arm at said first end . - a longitudinally extended guide , - at least one grip arm which is extended at right angles to said guide and can slide along it, said at least one grip arm having a plurality of grippers arranged along its axis of extension, and - at least one carriage for the storage of said parts (G,G',F), with an axis of extension that is parallel to the axis of extension of said at least one arm , said at least one carriage having a plurality of superimposed levels for the accommodation of said parts (G,G',F) said at least one arm is coupled at a first end to said guide,
Method for controlling vacuum generators and thereby the vacuum in a vacuum sewage system, each vacuum generator being in the form of a liquid ring screw pump driven by an electric motor, including beyond the generators one or more tubular collectors or suction pipelines connected to the vacuum generators and one or more toilets, urinals or grey water sinks connected to the tubular collectors or suction pipelines through branch pipelines , characterised in that the vacuum of the system is maintained and controlled by controlling the rotational speed of the electric motors on the basis of a preset required vacuum capacity, further comprising controlling the speed for each electric motor in the system with a programmable logic controller (PLC) through a frequency transformer on the basis of signals from a pressure transmitter, the PLC being programmed to run a first vacuum generator until it reaches a set highest speed and then start a second vacuum generator if the vacuum system requires increased vacuum capacity.
A turbine section of a gas turbine engine , comprising: multiple outer vane platforms ; a multiple of Blade Outer Air Seals adjacent to said multiple of outer vane platforms; a vane support that at least partially supports a multiple of said vane platforms; a Blade Outer Air Seal support that extends from said vane support, wherein said Blade Outer Air Seal support at least partially supports said multiple of Blade Outer Air Seals, wherein the Blade Outer Air Seal support includes a multiple of circumferentially segmented lugs that receive lugs that extend from each of the multiple of Blade Outer Air Seals; a radial wall of said vane support that extends toward an engine axis at least partially between said multiple of vane platforms and said Blade Outer Air Seal support; and a seal mounted to the Blade Outer Air Seal support, the seal extending axially with respect to the engine axis between said multiple of vane platforms and the lugs of said Blade Outer Air seals, said seal extending axially beyond a distal end section of said radial wall to interface with an outer vane platform. multiple outer vane platforms ; a multiple of Blade Outer Air Seals adjacent to said multiple of outer vane platforms; a vane support that at least partially supports a multiple of said vane platforms; a Blade Outer Air Seal support that extends from said vane support, wherein said Blade Outer Air Seal support at least partially supports said multiple of Blade Outer Air Seals, wherein the Blade Outer Air Seal support includes a multiple of circumferentially segmented lugs that receive lugs that extend from each of the multiple of Blade Outer Air Seals; a radial wall of said vane support that extends toward an engine axis at least partially between said multiple of vane platforms and said Blade Outer Air Seal support; and a seal mounted to the Blade Outer Air Seal support, the seal extending axially with respect to the engine axis between said multiple of vane platforms and the lugs of said Blade Outer Air seals, said seal extending axially beyond a distal end section of said radial wall to interface with an outer vane platform.
A method in a user equipment , the method comprising: acquiring configuration information regarding a downlink control information message for a physical uplink shared channel transmission; receiving the downlink control information message on a physical downlink control channel in a first subframe, the downlink control information message indicating a plurality of resource assignments in a second subframe for an uplink carrier from which the user equipment selects one resource assignment for transmission on the uplink carrier, where the downlink control information message is cyclic redundancy check scrambled by a radio network temporary identifier that is indicated via higher layers that are higher than a physical layer; selecting a resource assignment from the plurality of resource assignments using a selection criterion, the selection criterion based on at least one parameter measured by the user equipment ; and transmitting a data packet on the physical uplink shared channel in a resource of the selected resource assignment in the second subframe on the uplink carrier. acquiring configuration information regarding a downlink control information message for a physical uplink shared channel transmission; receiving the downlink control information message on a physical downlink control channel in a first subframe, the downlink control information message indicating a plurality of resource assignments in a second subframe for an uplink carrier from which the user equipment selects one resource assignment for transmission on the uplink carrier, where the downlink control information message is cyclic redundancy check scrambled by a radio network temporary identifier that is indicated via higher layers that are higher than a physical layer; selecting a resource assignment from the plurality of resource assignments using a selection criterion, the selection criterion based on at least one parameter measured by the user equipment ; and transmitting a data packet on the physical uplink shared channel in a resource of the selected resource assignment in the second subframe on the uplink carrier.
A system comprising: a first processor comprising circuitry configured to execute a plurality of threads of an operating system kernel; and a second processor coupled to the first processor, wherein the second processor comprises circuitry configured to execute an application and send system service requests to the first processor for servicing; wherein the first processor is configured to: monitor a number of cycles that threads executing on the first processor have spent servicing system service requests over a previous time interval ; calculate an overhead associated with servicing system service requests over the previous time interval, said overhead comprising said number of cycles and cycles spent transitioning between user mode and kernel mode; and dynamically adjust an amount of delay that is added to servicing of a given system service request based on the overhead. a first processor comprising circuitry configured to execute a plurality of threads of an operating system kernel; and a second processor coupled to the first processor, wherein the second processor comprises circuitry configured to execute an application and send system service requests to the first processor for servicing; wherein the first processor is configured to: monitor a number of cycles that threads executing on the first processor have spent servicing system service requests over a previous time interval ; calculate an overhead associated with servicing system service requests over the previous time interval, said overhead comprising said number of cycles and cycles spent transitioning between user mode and kernel mode; and dynamically adjust an amount of delay that is added to servicing of a given system service request based on the overhead. monitor a number of cycles that threads executing on the first processor have spent servicing system service requests over a previous time interval ; calculate an overhead associated with servicing system service requests over the previous time interval, said overhead comprising said number of cycles and cycles spent transitioning between user mode and kernel mode; and dynamically adjust an amount of delay that is added to servicing of a given system service request based on the overhead.
An imaging device comprising: a semiconductor substrate; a plurality of pixel electrodes located above the semiconductor substrate and each electrically connected to the semiconductor substrate; a counter electrode located above the plurality of pixel electrodes; a first photoelectric conversion layer located between the counter electrode and the plurality of pixel electrodes; and at least one first light-shielding body located in the first photoelectric conversion layer or above the first photoelectric conversion layer, wherein the first photoelectric conversion layer contains a semiconducting carbon nanotube having a property of absorbing light in a first wavelength range and an organic molecule that covers the semiconducting carbon nanotube and that has a property of absorbing light in a second wavelength range and emitting fluorescence in a third wavelength range, and the at least one first light-shielding body absorbs or reflects light in at least part of the second wavelength range. a semiconductor substrate; a plurality of pixel electrodes located above the semiconductor substrate and each electrically connected to the semiconductor substrate; a counter electrode located above the plurality of pixel electrodes; a first photoelectric conversion layer located between the counter electrode and the plurality of pixel electrodes; and at least one first light-shielding body located in the first photoelectric conversion layer or above the first photoelectric conversion layer, wherein the first photoelectric conversion layer contains a semiconducting carbon nanotube having a property of absorbing light in a first wavelength range and an organic molecule that covers the semiconducting carbon nanotube and that has a property of absorbing light in a second wavelength range and emitting fluorescence in a third wavelength range, and a semiconducting carbon nanotube having a property of absorbing light in a first wavelength range and an organic molecule that covers the semiconducting carbon nanotube and that has a property of absorbing light in a second wavelength range and emitting fluorescence in a third wavelength range, and the at least one first light-shielding body absorbs or reflects light in at least part of the second wavelength range.
Thermally embossed nonwoven fabric, suitable for the production of a decorative layer for the interior of an automobile, where the nonwoven fabric comprises thermoplastic fibres, has been needled, and exhibits an ultimate tensile elongation of at least30%, and where the nonwoven fabric has embossed depressions which have basal areas at their base, where the ratio of the thickness of the nonwoven fabric in the region of the basal areas of the depressions to the thickness of the nonwoven fabric in the region of the unembossed regions is at most 0.1, characterized in that the proportion of the total basal area of the depressions, based on the total area of the nonwoven fabric, is 0.5% to 30%.
A method for wireless communication, comprising: transmitting, from a wireless communications device to a base station , a first set of data using a first access resource selected from a common pool of access resources as part of a grant-less transmission; determining, by the wireless communications device , to switch from the common pool of access resources to a reserved access pool for transmitting a second set of data based on a transmission metric exceeding a threshold, wherein the transmission metric is based on predicted uplink quality and/or uplink transmission duration, and wherein the second set of data includes a remaining amount of data to be transmitted from the wireless communication device to the base station ; requesting, by the wireless communications device , the base station to provide a second access resource from the reserved access pool ; receiving, at the wireless communications device , an acknowledgement from the base station comprising an identification of the second access resource; and transmitting, by the wireless communications device , the second set of data to the base station using the second access resource after transitioning to the second access resource. transmitting, from a wireless communications device to a base station , a first set of data using a first access resource selected from a common pool of access resources as part of a grant-less transmission; determining, by the wireless communications device , to switch from the common pool of access resources to a reserved access pool for transmitting a second set of data based on a transmission metric exceeding a threshold, wherein the transmission metric is based on predicted uplink quality and/or uplink transmission duration, and wherein the second set of data includes a remaining amount of data to be transmitted from the wireless communication device to the base station ; requesting, by the wireless communications device , the base station to provide a second access resource from the reserved access pool ; receiving, at the wireless communications device , an acknowledgement from the base station comprising an identification of the second access resource; and transmitting, by the wireless communications device , the second set of data to the base station using the second access resource after transitioning to the second access resource.