mhurhangee/patent-ind-claim-en huggingface dataset:
A method for controlling activation of a bandwidth part, BWP, comprising: receiving and saving BWP configuration information transmitted by a base station, wherein the BWP configuration information comprises BWP identification information; receiving a BWP activation command transmitted by the base station; and performing BWP activation with a BWP identifier indicated by the BWP activation command, whereby the BWP configuration information is used to indicate a default BWP corresponding to each component carrier; and after receiving and saving the BWP configuration information transmitted by the base station, the method further comprises: receiving a component carrier activation signaling transmitted by the base station; and activating , based on the component carrier activation signaling, a first target component carrier and a default BWP corresponding to the first target component carrier, wherein the BWP configuration information comprises BWP configuration information of a primary base station and BWP configuration information of a secondary base station, wherein in the case that the secondary base station is added to a user equipment, the BWP configuration information of the secondary base station is configured for the user equipment by the primary base station. receiving and saving BWP configuration information transmitted by a base station, wherein the BWP configuration information comprises BWP identification information; receiving a BWP activation command transmitted by the base station; and performing BWP activation with a BWP identifier indicated by the BWP activation command, whereby the BWP configuration information is used to indicate a default BWP corresponding to each component carrier; and after receiving and saving the BWP configuration information transmitted by the base station, the method further comprises: receiving a component carrier activation signaling transmitted by the base station; and activating , based on the component carrier activation signaling, a first target component carrier and a default BWP corresponding to the first target component carrier, receiving a component carrier activation signaling transmitted by the base station; and activating , based on the component carrier activation signaling, a first target component carrier and a default BWP corresponding to the first target component carrier, wherein the BWP configuration information comprises BWP configuration information of a primary base station and BWP configuration information of a secondary base station, wherein in the case that the secondary base station is added to a user equipment, the BWP configuration information of the secondary base station is configured for the user equipment by the primary base station.
A method of producing a cellular array, comprising: providing a sample comprising a plurality of cells; and introducing the plurality of cells in the sample into microwells of a microwell array to produce the cellular array, wherein introducing the plurality of cells into the microwells of the microwell array comprises flow cytometrically depositing the plurality of cells into the microwells of the microwell array, characterized in that : (a) the method comprises: (i) aligning a sorting component of the flow cytometer with the microwell array; and (ii) introducing a reagent comprising one or more synthetic particles attached with a plurality of oligonucleotide barcodes into one or more of the microwells: (A) of the microwell array before the plurality of cells are introduced into the microwells of the microwell array; or (B) of the cellular array; and (b) the microwell array comprises 77.5 or more microwells per cm 2 (500 or more microwells per inch 2 ) and 50% or more of the microwells of the cellular array comprise a single cell. providing a sample comprising a plurality of cells; and introducing the plurality of cells in the sample into microwells of a microwell array to produce the cellular array, wherein introducing the plurality of cells into the microwells of the microwell array comprises flow cytometrically depositing the plurality of cells into the microwells of the microwell array, characterized in that : (a) the method comprises: (i) aligning a sorting component of the flow cytometer with the microwell array; and (ii) introducing a reagent comprising one or more synthetic particles attached with a plurality of oligonucleotide barcodes into one or more of the microwells: (A) of the microwell array before the plurality of cells are introduced into the microwells of the microwell array; or (B) of the cellular array; and (b) the microwell array comprises 77.5 or more microwells per cm 2 (500 or more microwells per inch 2 ) and 50% or more of the microwells of the cellular array comprise a single cell. (a) the method comprises: (i) aligning a sorting component of the flow cytometer with the microwell array; and (ii) introducing a reagent comprising one or more synthetic particles attached with a plurality of oligonucleotide barcodes into one or more of the microwells: (A) of the microwell array before the plurality of cells are introduced into the microwells of the microwell array; or (B) of the cellular array; and (i) aligning a sorting component of the flow cytometer with the microwell array; and (ii) introducing a reagent comprising one or more synthetic particles attached with a plurality of oligonucleotide barcodes into one or more of the microwells: (A) of the microwell array before the plurality of cells are introduced into the microwells of the microwell array; or (B) of the cellular array; and (b) the microwell array comprises 77.5 or more microwells per cm 2 (500 or more microwells per inch 2 ) and 50% or more of the microwells of the cellular array comprise a single cell.
A transport device with a plurality of electro-magnetic actuators and a driving surface arranged above the electro-magnetic actuators , which driving surface is adapted to carry sample container carriers, wherein the driving surface is tiled comprising a plurality of driving surface modules with driving surface elements , wherein support elements arranged in a grid pattern are provided, and wherein each driving surface module is detachably mounted to a subset of the support elements, so that individual driving surface modules are detachable to access electro-magnetic actuators arranged below said individual driving surface modules .
An edible coating composition for a bakery product, wherein the composition is an aqueous solution comprised of a colorant suitable for consumption, 15 to 40 wt% of mono and/or disaccharides, and 0.1 to 1 wt% of one or more hydrocolloid agents selected from the group consisting of guar gum, Arabic gum, Karaya gum, alginate, pectins, gelatin, locust bean gum, carrageenan, hydroxypropyl cellulose and carboxymethyl cellulose, wherein the water : colorant ratio of the composition is between 1:1 to 10:1, preferably between 2:1 to 7:1, more preferably between 2:1 to 5:1, wherein the composition further comprises a water activity (Aw) agent adjusting the Aw value of the composition between 0.8 to 0.98, preferably between 0.85 to 0.95, more preferably between 0.88 and 0.93, wherein the agent is selected from the group consisting of glycerol, sorbitol, and dextrin, and wherein the colorant suitable for consumption is a vegetable concentrate, for example kale, beetroot or carrot concentrate.
A DVC, comprising: a substrate having at least one RF electrode and at least one anchor electrode disposed therein; an insulating layer disposed on the at least one anchor electrode ; a conductive layer disposed on the insulating layer , wherein the at least one anchor electrode , insulating layer and conductive layer form a MIM capacitor ; an ohmic contact layer disposed on the conductive layer ; and at least one MEMS bridge disposed over the substrate and coupled to the conductive layer , the at least one MEMS bridge movable between a position spaced a first distance from the RF electrode and a position spaced a second distance from the RF electrode that is less than the first distance, and wherein at the second distance, the at least one MEMS bridge forms an ohmic contact with the at least one RF electrode . a substrate having at least one RF electrode and at least one anchor electrode disposed therein; an insulating layer disposed on the at least one anchor electrode ; a conductive layer disposed on the insulating layer , wherein the at least one anchor electrode , insulating layer and conductive layer form a MIM capacitor ; an ohmic contact layer disposed on the conductive layer ; and at least one MEMS bridge disposed over the substrate and coupled to the conductive layer , the at least one MEMS bridge movable between a position spaced a first distance from the RF electrode and a position spaced a second distance from the RF electrode that is less than the first distance, and wherein at the second distance, the at least one MEMS bridge forms an ohmic contact with the at least one RF electrode .
A method for controlling announcements to both a first user and a second user during a call between the first user and the second user, wherein the controlling is performed by a communication node, the method comprising: receiving instructions associated with transmitting a first announcement to a first user and a second announcement to a second user during a call between the first user and the second user after the second user answers the call from the first user, wherein the call is connected and established between the first and second users, said instructions indicating a priority between the transmission of the first announcement and the second announcement, wherein the first announcement and the second announcement are different; instructing at least one node to transmit the first announcement to the first user and to transmit the second announcement to the second user, wherein the first announcement and the second announcement are played at a same time; monitoring the transmission of the first announcement and the transmission of the second announcement, wherein one of the two announcements is a priority announcement and the other of the two announcements is a non-priority announcement; and instructing the at least one node to stop transmission of the non-priority announcement when the priority announcement is finished. receiving instructions associated with transmitting a first announcement to a first user and a second announcement to a second user during a call between the first user and the second user after the second user answers the call from the first user, wherein the call is connected and established between the first and second users, said instructions indicating a priority between the transmission of the first announcement and the second announcement, wherein the first announcement and the second announcement are different; instructing at least one node to transmit the first announcement to the first user and to transmit the second announcement to the second user, wherein the first announcement and the second announcement are played at a same time; monitoring the transmission of the first announcement and the transmission of the second announcement, wherein one of the two announcements is a priority announcement and the other of the two announcements is a non-priority announcement; and instructing the at least one node to stop transmission of the non-priority announcement when the priority announcement is finished.
A production method for reshaping a strip material into a fin reshaped regularly to enlarge the surface of a fin package, wherein these fins can be arranged at a certain distance from each other for joint ribbing of multiple tubes in a heat exchanger subsequent to production, characterised in that the fins are shaped with parallel contour longitudinal directions crosswise to a production direction by several individual tools of a serial arrangement, wherein at least one of these individual tools embosses stiffening tracks running longitudinally to the production direction in order to interrupt the parallel contours at least in sections.
Method for supply of liquid from a liquid storage to a casing string which from a deck on an installation is conveyed down in a well with the help of a pipe handler comprising an elevator, where the liquid is supplied via an uppermost casing which is added to the casing string, and the liquid is supplied via a filling pipe to the top of the casing already during screwing of the pipe into the casing string (10,12, 14...) where the filling pipe is extended during the liquid supply until the casing string is lowered down into a position where it is locked to the deck , and there is added liquid to a suitable level in the casing string, characterized in that - the filling pipe comprises a telescopically, axially moveable pipe end part with a constricted outlet which leads to the pipe end part being pushed axially outwards and extends the filling pipe when the liquid is supplied under pressure, and - the pipe end part is pushed outwards under the countereffect of a prestressing force, and is pulled back under influence of said prestressing force when the liquid supply stops. - the filling pipe comprises a telescopically, axially moveable pipe end part with a constricted outlet which leads to the pipe end part being pushed axially outwards and extends the filling pipe when the liquid is supplied under pressure, and - the pipe end part is pushed outwards under the countereffect of a prestressing force, and is pulled back under influence of said prestressing force when the liquid supply stops.
A vehicle distributed network subsystem for providing feedback to a user, the subsystem comprising: a plurality of electronic control units (ECUs); and a data transmission means over which said ECUs are configured to communicate with one another, the data transmission means being configured to receive data relating to at least one parameter from at least one data source; wherein the subsystem is configured to define a nominated ECU for generating processed data from the data received by said data transmission means, and wherein the subsystem is configured to broadcast and deliver said processed data to two or more terminals for providing feedback to the user, to cause communication of the same parameter to the user by the different terminals. a plurality of electronic control units (ECUs); and a data transmission means over which said ECUs are configured to communicate with one another, the data transmission means being configured to receive data relating to at least one parameter from at least one data source; wherein the subsystem is configured to define a nominated ECU for generating processed data from the data received by said data transmission means, and wherein the subsystem is configured to broadcast and deliver said processed data to two or more terminals for providing feedback to the user, to cause communication of the same parameter to the user by the different terminals.
An electrode for an ablation catheter , the electrode comprising a substantially cylindrical body having proximal and distal ends and at least one lumen therethrough, the substantially cylindrical body comprising: a first layer comprised of a first conducting material ; an electrically insulating layer comprising an electrically insulating material ; and a second layer (40/42) comprised of a second conducting material different from the first conducting material, wherein: the electrically insulating layer is between the first and second layers; the first layer is substantially cylindrical; the first and second layers are in electrically conductive contact at a contact point forming a thermocouple , characterized in that : the thermocouple is positioned within a region of the cylindrical body, the region centrally-located between the proximal and distal ends of the cylindrical body, and the electrically insulating layer is between the first and second layers except for at least the contact point. a first layer comprised of a first conducting material ; an electrically insulating layer comprising an electrically insulating material ; and a second layer (40/42) comprised of a second conducting material different from the first conducting material, wherein: the electrically insulating layer is between the first and second layers; the first layer is substantially cylindrical; the first and second layers are in electrically conductive contact at a contact point forming a thermocouple , the electrically insulating layer is between the first and second layers; the first layer is substantially cylindrical; the first and second layers are in electrically conductive contact at a contact point forming a thermocouple , the thermocouple is positioned within a region of the cylindrical body, the region centrally-located between the proximal and distal ends of the cylindrical body, and the electrically insulating layer is between the first and second layers except for at least the contact point.
Method for manufacturing a diamond wire for cutting stone material, comprising the steps of: - producing a plurality of composite bush-and-bead elements ; - inserting a steel cable inside the plurality of composite bush-and-bead elements ; - splicing the two ends of the steel cable thus forming a number of strands interruption points wherein two strands ends are arranged end-to-end; said interruption points being spaced along the steel cable ; and - applying a plastic-coating onto the steel cable via injection moulding; said method being characterized by additionally comprising, prior to the step of applying the plastic-coating , the step of placing a number of reinforcing elements on the steel cable each above a respective interruption point , so as to cover the section of the steel cable at the interruption point , and so that said plastic-coating can at least partially cover said composite bush-and-bead elements and said reinforcing elements and also stably fix said composite bush-and-bead elements and said reinforcing elements onto said steel cable . - producing a plurality of composite bush-and-bead elements ; - inserting a steel cable inside the plurality of composite bush-and-bead elements ; - splicing the two ends of the steel cable thus forming a number of strands interruption points wherein two strands ends are arranged end-to-end; said interruption points being spaced along the steel cable ; and - applying a plastic-coating onto the steel cable via injection moulding;
An internal-combustion fuel injection control device comprising: a fuel injection device capable of performing multi-stage injection of fuel accumulated in a common rail through an injector ; a water temperature detection unit configured to detect a cooling water temperature of an engine ; an exhaust temperature detection unit configured to detect an exhaust temperature of the engine; and a control device , wherein the control device executes a misfire avoiding mode in which the multi-stage injection is performed, when the cooling water temperature is not lower than a predetermined water temperature T after start of the engine , wherein the misfire avoiding mode is deactivated and a switch is made to the injection map including single-stage injection in a first set time (d1) after the exhaust temperature (B) becomes not lower than a first set temperature (b1), characterized in that the control device is connected with an atmospheric pressure sensor , stores an atmospheric pressure correction map, and corrects the first set time (d1) in accordance with an atmospheric pressure. a fuel injection device capable of performing multi-stage injection of fuel accumulated in a common rail through an injector ; a water temperature detection unit configured to detect a cooling water temperature of an engine ; an exhaust temperature detection unit configured to detect an exhaust temperature of the engine; and a control device , wherein the control device executes a misfire avoiding mode in which the multi-stage injection is performed, when the cooling water temperature is not lower than a predetermined water temperature T after start of the engine , wherein the misfire avoiding mode is deactivated and a switch is made to the injection map including single-stage injection in a first set time (d1) after the exhaust temperature (B) becomes not lower than a first set temperature (b1), characterized in that the control device is connected with an atmospheric pressure sensor , stores an atmospheric pressure correction map, and corrects the first set time (d1) in accordance with an atmospheric pressure.
Formwork support comprising a first flange element made of a wood material, a second flange element made of a wood material and a web element connecting the first flange element to the second flange element and made of another wood material, the web element being planar, the main plane of the web element being substantially perpendicular to the main plane of the first flange element and second flange element , the web element comprising, on one longitudinal side, at least one first projection , extending in the longitudinal direction of the web element , for connection to the first flange element and/or, on the other longitudinal side, at least one second projection for connection to the second flange element , and comprising at least one first reinforcing element which extends in the longitudinal direction of the first flange element and is arranged in a corresponding recess in the first flange element , the at least one first reinforcing element being arranged substantially completely between the outer surfaces of the first flange element , such that the at least one first reinforcing element does not protrude beyond one of the outer surfaces of the first flange element , characterised in that either the at least one first reinforcing element directly abuts the at least one first projection of the web element or an intermediate element that is different from the wood material of the first flange element is arranged between the at least one first reinforcing element and the at least one first projection of the web element , the at least one first reinforcing element ending substantially flush with the outer surface of the first flange element that is remote from the second flange element .
A load address prediction engine of a processor , comprising a load address prediction table configured to store a plurality of load address prediction table entries (202 -202(Y)) each comprising a predictor tag field and a memory address field , and configured to: receive a load instruction ; generate a table index and a predictor tag based on an identifier and a load path history indicator for the load instruction ; determine whether the predictor tag is present in a predictor tag field of a load address prediction table entry (202 ), corresponding to the table index , of the plurality of load address prediction table entries (202 -202(Y)); and responsive to determining that the predictor tag is present in a predictor tag field of a load address prediction table entry (202 ), corresponding to the table index , of the plurality of load address prediction table entries (202 -202(Y)), provide a memory address from a memory address field of the load address prediction table entry (202 ) as a predicted memory address for the load instruction . receive a load instruction ; generate a table index and a predictor tag based on an identifier and a load path history indicator for the load instruction ; determine whether the predictor tag is present in a predictor tag field of a load address prediction table entry (202 ), corresponding to the table index , of the plurality of load address prediction table entries (202 -202(Y)); and responsive to determining that the predictor tag is present in a predictor tag field of a load address prediction table entry (202 ), corresponding to the table index , of the plurality of load address prediction table entries (202 -202(Y)), provide a memory address from a memory address field of the load address prediction table entry (202 ) as a predicted memory address for the load instruction .