mhurhangee/patent-ind-claim-en huggingface dataset:
A method for monitoring a physical downlink control channel, PDCCH, applied to a network device, and comprising: determining (S201) configuration information of at least one control resource set, CORESET; and transmitting (S202) the configuration information of the at least one CORESET to a terminal, wherein the at least one CORESET is configured per carrier or per bandwidth part, BWP, and the carrier comprises at least one BWP, wherein in a case that the at least one CORESET is configured per carrier, one carrier is configured with at least one CORESET; and in a case that the at least one CORESET is configured per BWP, one BWP is configured with at least one CORESET, characterized in that in a case that the terminal is switched from a first BWP to a second BWP, the method further comprises at least one of: transmitting, to the terminal, a downlink control information, DCI, parameter corresponding to the first BWP and a DCI parameter corresponding to the second BWP, when the DCI parameter of the first BWP is different from the DCI parameter of the second BWP; and transmitting, to the terminal, DCI in a CORESET corresponding to the first BWP, and transmitting, to the terminal, DCI in a CORESET corresponding to the second BWP, when a center frequency of the first BWP is different from a center frequency of the second BWP. determining (S201) configuration information of at least one control resource set, CORESET; and transmitting (S202) the configuration information of the at least one CORESET to a terminal, wherein the at least one CORESET is configured per carrier or per bandwidth part, BWP, and the carrier comprises at least one BWP, wherein in a case that the at least one CORESET is configured per carrier, one carrier is configured with at least one CORESET; and in a case that the at least one CORESET is configured per BWP, one BWP is configured with at least one CORESET, characterized in that in a case that the terminal is switched from a first BWP to a second BWP, the method further comprises at least one of: transmitting, to the terminal, a downlink control information, DCI, parameter corresponding to the first BWP and a DCI parameter corresponding to the second BWP, when the DCI parameter of the first BWP is different from the DCI parameter of the second BWP; and transmitting, to the terminal, DCI in a CORESET corresponding to the first BWP, and transmitting, to the terminal, DCI in a CORESET corresponding to the second BWP, when a center frequency of the first BWP is different from a center frequency of the second BWP. transmitting, to the terminal, a downlink control information, DCI, parameter corresponding to the first BWP and a DCI parameter corresponding to the second BWP, when the DCI parameter of the first BWP is different from the DCI parameter of the second BWP; and transmitting, to the terminal, DCI in a CORESET corresponding to the first BWP, and transmitting, to the terminal, DCI in a CORESET corresponding to the second BWP, when a center frequency of the first BWP is different from a center frequency of the second BWP.
A process to prepare a compound of Formula 5 or 5* , or a mixture thereof: the method comprising: (a) reacting a compound of Formula 6: with nitromethane in the presence of a chiral catalyst of Formula 3 or 3* : wherein R 4 and R 5 are H; to provide a compound of Formula 7 or 7*, or mixture thereof; and (b) conversion of a compound of Formula 7 or 7*, or mixture thereof, to a compound of Formula 5 or 5* , or mixture thereof; wherein each R 3 is independently halo, -O(C=O)-alkyl having 1 to 12 carbon atoms, -O(C=O)-O-alkyl having 1 to 12 carbon atoms, or -O(SO 2 )-alkyl having 1 to 12 carbon atoms. (a) reacting a compound of Formula 6: with nitromethane in the presence of a chiral catalyst of Formula 3 or 3* : wherein R 4 and R 5 are H; to provide a compound of Formula 7 or 7*, or mixture thereof; and (b) conversion of a compound of Formula 7 or 7*, or mixture thereof, to a compound of Formula 5 or 5* , or mixture thereof; wherein each R 3 is independently halo, -O(C=O)-alkyl having 1 to 12 carbon atoms, -O(C=O)-O-alkyl having 1 to 12 carbon atoms, or -O(SO 2 )-alkyl having 1 to 12 carbon atoms.
An apparatus for measuring psycho-physical ability of an individual, designed in a form of a board having corners, a controller and moveable puzzle elements, each puzzle element consisting of a display and a press button, the apparatus comprises the board , where in one of the corners is located the controller with press buttons and a display , the corners of the board having extensions, the extensions having cameras mounted thereon configured to analyse the movements of the participant, built in a base of the board are aerial sensors comprising an RFID system, on the board there is arranged the puzzle elements with the display configured to present a part of a puzzle or display a photography with a response that is activated by pressing the button with the display, a rear wall of the board consisting of a camera configured to track facial expressions, wherein each puzzle element contains a built-in system of RFID receivers, the aerial sensors being configured to localize the position of the RFID receivers, the press button being configured to receive user input by pressing, the controller further containing a memory configured to save the results of the received user input.
A manager for controlling an actuator system installed in a vehicle, comprising one or more processors configured to receive a plurality of first kinematic plans from a plurality of electronic control units in each of which is implemented an advanced driver assistance system application function, and receive a plurality of second kinematic plans from the plurality of electronic control units that are future kinematic plans following respective first kinematic plans; arbitrate the first kinematic plans and the second kinematic plans; calculate one or more motion requests based on an arbitration result; and output the one or more motion requests to one or more actuator systems . receive a plurality of first kinematic plans from a plurality of electronic control units in each of which is implemented an advanced driver assistance system application function, and receive a plurality of second kinematic plans from the plurality of electronic control units that are future kinematic plans following respective first kinematic plans; arbitrate the first kinematic plans and the second kinematic plans; calculate one or more motion requests based on an arbitration result; and output the one or more motion requests to one or more actuator systems .
A fluid dispensing personal care product comprising: a handle defining a cavity having a support surface ; a fluid reservoir containing a volume of a fluid, the fluid reservoir configured to attach to the handle; an actuator on the handle having a pump contacting surface ; a pump system positioned within the handle that includes a flexible fluid collector configured to dispense fluid from the fluid reservoir to an exit port , wherein the flexible fluid collector contacts the support surface of the handle and the pump contacting surface of the actuator in a neutral position, characterized in that the pump contacting surface of the actuator has a contact length that is 40% to 90% of the length of the flexible fluid collector . a handle defining a cavity having a support surface ; a fluid reservoir containing a volume of a fluid, the fluid reservoir configured to attach to the handle; an actuator on the handle having a pump contacting surface ; a pump system positioned within the handle that includes a flexible fluid collector configured to dispense fluid from the fluid reservoir to an exit port , wherein the flexible fluid collector contacts the support surface of the handle and the pump contacting surface of the actuator in a neutral position, characterized in that the pump contacting surface of the actuator has a contact length that is 40% to 90% of the length of the flexible fluid collector .
A method for treating water within a water system to control one or more of scaling, corrosion, bacteria growth and algae growth, the method comprising the steps of: generating a DC superimposed time-varying frequency AC pulsed electromagnetic wave by superimposing a direct current on a low frequency time-varying pulsating electromagnetic wave signal, wherein the DC superimposed time-varying frequency AC pulsed electromagnetic wave comprises an AC driving signal with time-varying frequency riding on a DC output with a predefined DC bias voltage; applying the DC superimposed time-varying frequency AC pulsed electromagnetic wave to the water and the water system to provide a DC superimposed time-varying AC pulsating ionic wave current that is transmitted to one or more emitters placed in the water or the water and the water system so as to excite the water or the water and the water system to cause a flow of ionic current having a DC component travelling in a pulsating and time-varying manner in the water or the water and the water system and to induce vibration of electrons and molecules of the water or the water and the water system. generating a DC superimposed time-varying frequency AC pulsed electromagnetic wave by superimposing a direct current on a low frequency time-varying pulsating electromagnetic wave signal, wherein the DC superimposed time-varying frequency AC pulsed electromagnetic wave comprises an AC driving signal with time-varying frequency riding on a DC output with a predefined DC bias voltage; applying the DC superimposed time-varying frequency AC pulsed electromagnetic wave to the water and the water system to provide a DC superimposed time-varying AC pulsating ionic wave current that is transmitted to one or more emitters placed in the water or the water and the water system so as to excite the water or the water and the water system to cause a flow of ionic current having a DC component travelling in a pulsating and time-varying manner in the water or the water and the water system and to induce vibration of electrons and molecules of the water or the water and the water system.
An immunological measurement method for leucine-rich α2 glycoprotein (LRG) in a biologically derived sample comprising: bringing the sample into contact with at least insoluble carrier particles carrying a first anti-LRG monoclonal antibody and insoluble carrier particles carrying a second anti-LRG monoclonal antibody in a liquid phase, wherein the insoluble carrier particles are latex particles having average particle sizes of 100 nm to 340 nm respectively, and wherein the insoluble carrier particles are latex particles having critical coagulation concentrations of 65 mM to 270 mM respectively. wherein the insoluble carrier particles are latex particles having average particle sizes of 100 nm to 340 nm respectively, and wherein the insoluble carrier particles are latex particles having critical coagulation concentrations of 65 mM to 270 mM respectively.
A process for the preparation of compound 18, having the structure: comprising reacting compound 17, having the structure: with ammonia or an ammonia equivalent selected from the group consisting of ammonium acetate, ammonium bicarbonate, ammonium carbamate, ammonium carbonate, ammonium chloride, ammonium hydroxide, and ammonium phosphate, and a peptide coupling reagent selected from the group consisting of N -(3-dimethylaminopropyl)- N '-ethylcarbodiimide hydrochloride/ N -hydroxysuccinimide; N -(3-dimethylaminopropyl)- N '-ethylcarbodiimide hydrochloride/1-hydroxybenzotriazole; and 1,1'-carbonyldiimidazole (CDI), to form compound 18 .
Combustion method in a power plant comprising at least one mill , at least one steam generator with a combustion chamber connected to the at least one mill , and a flue gas cleaning system connected downstream of the steam generator which comprises at least one filter device and at least one flue gas desulfurization system connected downstream of the filter device , wherein the at least one mill mills raw coal into coal dust, the coal dust is burned in the combustion chamber , steam is generated in the steam generator by the heat resulting thereof, and the flue gas produced in the combustion chamber is fed into the flue gas cleaning system, where the flue gas is filtered in the at least one filter device , whereby filter ash is obtained as a waste product, and sulfur and / or at least one sulfur compound is separated from the filtered flue gas in the flue gas desulfurization system , characterized in that a pumpable, sulfate-containing slurry and / or a pumpable, sulfate-containing suspension or solution, which in the present invention is referred to as thin slurry , is fed to the at least one mill , where it is milled together with the raw coal , fed to the combustion chamber and burned with the coal dust.
A foldable array substrate comprising: a base substrate , a gate metal layer disposed on one side of the base substrate , a source-drain metal layer disposed on the side of the gate metal layer opposite to the base substrate , and an insulating layer disposed between the gate metal layer and the source-drain metal layer, wherein the gate metal layer comprises a gate line , the source-drain metal layer comprises a data line , and the gate line is arranged in an intersecting manner with the data line to define a plurality of pixel units on the base substrate , the foldable array substrate further comprises a plurality of holes disposed in the insulating layer , which are not disposed in a pixel unit and do not intersect with the pixel unit, wherein the plurality of holes comprise a plurality of first type of holes, the first type of holes do not intersect with a metal portion of each metal layer of the foldable array substrate and extend from one side of the insulating layer opposite to the base substrate to the base substrate , and the foldable array substrate further comprises a first preset punching area reserved between two rows of pixel units adjacent to each other, and a second preset punching area reserved between two columns of pixel units adjacent to each other, wherein the plurality of holes are disposed in the first preset punching area and the second preset punching area to improve an anti-bending capacity of the foldable array substrate, characterized in that the plurality of holes comprise a second type of holes, the second type of holes extend from one side of the insulating layer opposite to the base substrate to a metal wiring in the gate metal layer. the gate metal layer comprises a gate line , the source-drain metal layer comprises a data line , and the gate line is arranged in an intersecting manner with the data line to define a plurality of pixel units on the base substrate , the foldable array substrate further comprises a plurality of holes disposed in the insulating layer , which are not disposed in a pixel unit and do not intersect with the pixel unit, wherein the plurality of holes comprise a plurality of first type of holes, the first type of holes do not intersect with a metal portion of each metal layer of the foldable array substrate and extend from one side of the insulating layer opposite to the base substrate to the base substrate , and the foldable array substrate further comprises a first preset punching area reserved between two rows of pixel units adjacent to each other, and a second preset punching area reserved between two columns of pixel units adjacent to each other, wherein the plurality of holes are disposed in the first preset punching area and the second preset punching area to improve an anti-bending capacity of the foldable array substrate, characterized in that the plurality of holes comprise a second type of holes, the second type of holes extend from one side of the insulating layer opposite to the base substrate to a metal wiring in the gate metal layer.
A support for a lashing or securing means comprising a first contact region for contact with a load and a second contact region for contact with the lashing or securing means , wherein the second contact region is in the form of a sheet , a film or a coated band and the second contact region has an improved sliding property in comparison with the first contact region , characterised in that the second contact region for length adjustment is in the form of individual, partially overlapping segments adjustable relative to each other.
A separator for a secondary battery having a coating layer formed on a separator substrate, wherein the coating layer is formed on at least one surface of the separator substrate, the coating layer comprises an acrylate-based binder and an additive, the additive is a fluorine-based non-ionic surfactant; wherein an amount of the acrylate-based binder present is 10 wt% or less based on a total weight of solid content in the coating layer excluding the additive; wherein an amount of the fluorine-based non-ionic surfactant present is 0.001 wt% or less based on a total of an inorganic material and the acrylate-based binder in the coating layer; and wherein a density of the coating layer is 2 g/m 3 or less. the coating layer is formed on at least one surface of the separator substrate, the coating layer comprises an acrylate-based binder and an additive, the additive is a fluorine-based non-ionic surfactant; wherein an amount of the acrylate-based binder present is 10 wt% or less based on a total weight of solid content in the coating layer excluding the additive; wherein an amount of the fluorine-based non-ionic surfactant present is 0.001 wt% or less based on a total of an inorganic material and the acrylate-based binder in the coating layer; and wherein a density of the coating layer is 2 g/m 3 or less.
Machine for making ice in the shape of cylinders particularly for a counter for displaying goods, having a vertical expansion apt to promote the dispensing of said ice directly on said counter , comprising first dispensing means of said ice to which at least one proximity sensor is associated, adapted to detect the quantity of ice accumulated on said counter , characterised in that said first dispensing means comprises a sliding device of said cylinders of ice adapted to subject said cylinders of ice , to a propulsion fore acting in combination with the force of gravity so as to distribute said cylinders of ice over a wider distribution surface area of said counter , wherein said sliding device is a slide having an initial straight portion and an end portion having a lower inclination with respect to said initial straight portion and wherein said proximity sensor is configured and positioned above said slide so as to detect the minimum distance between said end portion of the slide and the accumulation of said cylinders of ice on said counter .
A method for expanding a population of T cells, the method comprising: electroporating a population of cells comprising T cells with mRNA encoding a chimeric membrane protein, the chimeric membrane protein comprising an extracellular domain comprising an antigen binding domain comprising an antibody or antigen-binding fragment thereof, wherein the antigen binding domain is selected from the group consisting of anti-CD3, anti-TCR, anti-CD28 and a combination thereof, and an intracellular signaling domain comprising an intracellular signaling domain of CD28 and an intracellular signaling domain of 4-1BB, wherein the mRNA is introduced into at least one of the cells in the population and expressed on the surface of the cells; and culturing the electroporated population of cells, wherein the T cells contained therein expand at least 10 fold. electroporating a population of cells comprising T cells with mRNA encoding a chimeric membrane protein, the chimeric membrane protein comprising an extracellular domain comprising an antigen binding domain comprising an antibody or antigen-binding fragment thereof, wherein the antigen binding domain is selected from the group consisting of anti-CD3, anti-TCR, anti-CD28 and a combination thereof, and an intracellular signaling domain comprising an intracellular signaling domain of CD28 and an intracellular signaling domain of 4-1BB, wherein the mRNA is introduced into at least one of the cells in the population and expressed on the surface of the cells; and culturing the electroporated population of cells, wherein the T cells contained therein expand at least 10 fold.
Process for creating an IML label with a tactile effect from an IML-specific film , characterized in that , after subjecting the film to a decoration process using a printing technique, in successive stages according to the desired number of colors: - the film is subjected to a cylinder or an anilox/plate combination with recessed engraving capable of receiving a tactile-effect varnish (V), - the cylinder or anilox is dipped in a tank containing the varnish (V), - the cylinder or anilox is wiped so that only the varnish (V) remains in the recessed areas of the cylinder or anilox engraving, - the tactile-effect varnish (V) is printed onto the film using the cylinder or plate, to achieve a varnish with raised shapes, - the film is cut to obtain tactile-effect IML labels with recessed and raised areas. - the film is subjected to a cylinder or an anilox/plate combination with recessed engraving capable of receiving a tactile-effect varnish (V), - the cylinder or anilox is dipped in a tank containing the varnish (V), - the cylinder or anilox is wiped so that only the varnish (V) remains in the recessed areas of the cylinder or anilox engraving, - the tactile-effect varnish (V) is printed onto the film using the cylinder or plate, to achieve a varnish with raised shapes, - the film is cut to obtain tactile-effect IML labels with recessed and raised areas.
A photopolymerisable composition curable by UV/VIS irradiation comprising: (a) from 80 to 99.8% by weight of a radically curable monomer-containing mixture, b) from 0.1 to 10% by weight of a photoinitiator system, and c) from 0.1 to 10% by weight of a bleaching agent, wherein the total amount of a), b) and c) is 100% by weight, and wherein the bleaching agent is effective under actinic irradiation, wherein the photoinitiator system contains a dye and a co-initiator, and wherein component c) contains photoinitiators and wherein the photoinitiators used in component c) generate benzoyl and alcohol radicals under the action of actinic radiation. (a) from 80 to 99.8% by weight of a radically curable monomer-containing mixture, b) from 0.1 to 10% by weight of a photoinitiator system, and c) from 0.1 to 10% by weight of a bleaching agent, wherein the total amount of a), b) and c) is 100% by weight, and wherein the bleaching agent is effective under actinic irradiation, wherein the photoinitiator system contains a dye and a co-initiator, and wherein component c) contains photoinitiators and wherein the photoinitiators used in component c) generate benzoyl and alcohol radicals under the action of actinic radiation.