mhurhangee/patent-ind-claim-en huggingface dataset:
A method for wireless communication , comprising: detecting , by a terminal device, M downlink control channels using N groups of search spaces or N groups of control resource sets, CORESETs, wherein N is an integer greater than or equal to 2, M is an integer greater than or equal to 2, and different groups of search spaces or different groups of CORESETs are used for detecting different downlink control channels, characterized in that the method further comprises: receiving, by the terminal device, first information from a network device, wherein the first information indicates a search space group to which a first search space belongs or a CORESET group to which a first CORESET belongs, through at least one of: whether the first information carries a specific field; or a value of the specific field of the first information. detecting , by a terminal device, M downlink control channels using N groups of search spaces or N groups of control resource sets, CORESETs, wherein N is an integer greater than or equal to 2, M is an integer greater than or equal to 2, and different groups of search spaces or different groups of CORESETs are used for detecting different downlink control channels, characterized in that the method further comprises: receiving, by the terminal device, first information from a network device, wherein the first information indicates a search space group to which a first search space belongs or a CORESET group to which a first CORESET belongs, through at least one of: whether the first information carries a specific field; or a value of the specific field of the first information. whether the first information carries a specific field; or a value of the specific field of the first information.
A method of hydroprocessing comprising: combining hydrogen gas for the hydroprocessing reaction with a liquid feed composition comprising a feedstock to be treated and a diluent to form a feed stream, at least a portion of the hydrogen gas being dissolved in the liquid feed composition of the feed stream, with non-dissolved hydrogen gas being present in the feed stream in an amount of from 0.000178 m 3 /L to 0.0125 m 3 /L (1 SCF to 70 SCF) per bbl of the liquid feed composition; and contacting the feed stream with a hydroprocessing catalyst of a catalyst bed while the liquid feed composition flows through a volume of nearly stagnant gas having a hydrogen flow rate of from 4.7 m3/hr or less per m 3 (5 SCF/hr or less per ft 3 ) of reactor volume within a reactor by controlling the removal of gas from the reactor while maintaining a liquid mass flux within the reactor of at least 24, 400 kg/hr·m 2 (5000 lb/hr·ft 2 ) to form a hydroprocessed product; separating gas from liquid hydroprocessed product in a separator located within the reactor downstream from the catalyst bed. combining hydrogen gas for the hydroprocessing reaction with a liquid feed composition comprising a feedstock to be treated and a diluent to form a feed stream, at least a portion of the hydrogen gas being dissolved in the liquid feed composition of the feed stream, with non-dissolved hydrogen gas being present in the feed stream in an amount of from 0.000178 m 3 /L to 0.0125 m 3 /L (1 SCF to 70 SCF) per bbl of the liquid feed composition; and contacting the feed stream with a hydroprocessing catalyst of a catalyst bed while the liquid feed composition flows through a volume of nearly stagnant gas having a hydrogen flow rate of from 4.7 m3/hr or less per m 3 (5 SCF/hr or less per ft 3 ) of reactor volume within a reactor by controlling the removal of gas from the reactor while maintaining a liquid mass flux within the reactor of at least 24, 400 kg/hr·m 2 (5000 lb/hr·ft 2 ) to form a hydroprocessed product; separating gas from liquid hydroprocessed product in a separator located within the reactor downstream from the catalyst bed.
Appliance for cooking and/or heating food, comprising an enclosure comprising a container and a cover , and a device for producing steam , characterised in that the cover carries a steam expansion chamber supplied with steam by the device for producing steam , in that the steam expansion chamber includes a containment wall that delimits a portion of the enclosure , in that the containment wall is mobile with respect to the container when the cover closes the enclosure , and in that the appliance includes a pump used to inflate the steam expansion chamber and/or to aspirate the air present in the enclosure .
A method of communicating between a server and a target node device (10 2 ) operating in a network of operatively interconnected node devices , each node device comprising a first communication interface and a second communication interface , wherein said first communication interface is arranged for direct uplink and downlink wireless message exchange via a wireless communication system between said server and a node device , and said second communication interface is arranged for inter-node device communication between node devices in said network , wherein said server is arranged for keeping a record of a last message exchanged with each node device , said method comprising the steps of: - determining , by said server , prior to communicating with said target node device (10 2 ), a current communication status of said target node device (10 2 ), based on said last message exchanged with said target node device (10 2 ); - communicating , by said server , with said target node device (10 2 ), via said first communication interface of said target node device (10 2 ), if said determined communication status of said target node device (10 2 ) indicates availability for data exchange via said first communication interface , and - communicating , by said server , with said target node device (10 2 ), via at least one other node device of said network selected by said server , if said determined communication status of said target node device (10 2 ) indicates non-availability for data exchange via said first communication interface ; wherein said communication status of said target node device (10 2 ) is determined by said server to be non-availability for data exchange via said first communication interface when said last exchanged message with said target node device (10 2 ) is exchanged at a point in time prior to a predetermined time period from determining said communication status by said server . - determining , by said server , prior to communicating with said target node device (10 2 ), a current communication status of said target node device (10 2 ), based on said last message exchanged with said target node device (10 2 ); - communicating , by said server , with said target node device (10 2 ), via said first communication interface of said target node device (10 2 ), if said determined communication status of said target node device (10 2 ) indicates availability for data exchange via said first communication interface , and - communicating , by said server , with said target node device (10 2 ), via at least one other node device of said network selected by said server , if said determined communication status of said target node device (10 2 ) indicates non-availability for data exchange via said first communication interface ;
A heat preservation shell for an analyzer , comprising a cover plate and an enclosure , wherein at least one fluid passage for conveying fluid is embedded in a shell wall of the heat preservation shell , the at least one fluid passage at least comprises a first fluid passage for conveying a fluid and a second fluid passage for conveying another fluid, characterized in that the first fluid passage and the second fluid passage are arranged on different horizontal planes embedded in the cover plate of the heat preservation shell .
A method for controlling and/or monitoring a compressor plant comprising a plurality of components, i.e. one compressor or more compressors and one periphery device or more periphery devices (14 to 21), as well as a controlling/monitoring unit , wherein the compressors and the periphery devices (14 to 21) are arranged or interconnected in a certain configuration, - wherein in a measured value detection step, measured values within the compressor plant or the components are detected, - wherein in an allocation step, in each case context information is allocated to the measured value or the measured values prior to, at the same time, or after the measured value detection so as to standardize the measured values, - wherein the standardization of the measured value by allocating context information specifically comprises unequivocally allocating a point of a measured value detection, - wherein the determination of the point of the measured value detection is performed in that the interconnection of the component is known via an initial model of the compressor plant or the interconnection of the elements via an initial model of the component, so that the measured value is then assigned a pre-configured measurement point in this initial model, and - wherein in an exploitation step, the measured value or the measured values standardized by context information is or are taken into consideration in a control, monitoring, diagnostic or evaluation routine. - wherein in a measured value detection step, measured values within the compressor plant or the components are detected, - wherein in an allocation step, in each case context information is allocated to the measured value or the measured values prior to, at the same time, or after the measured value detection so as to standardize the measured values, - wherein the standardization of the measured value by allocating context information specifically comprises unequivocally allocating a point of a measured value detection, - wherein the determination of the point of the measured value detection is performed in that the interconnection of the component is known via an initial model of the compressor plant or the interconnection of the elements via an initial model of the component, so that the measured value is then assigned a pre-configured measurement point in this initial model, and - wherein in an exploitation step, the measured value or the measured values standardized by context information is or are taken into consideration in a control, monitoring, diagnostic or evaluation routine.
Handle for a door of a household appliance , with a tubular handle bar , which is hollow at least in regions, so that at least one storage space for items is formed in the handle bar , wherein the handle bar has a jacket wall which bounds the storage space , wherein in the jacket wall at least one assembly and removal opening is embodied as an access opening to the storage space , and the handle has a movable cover , with which the assembly and removal opening can be covered or released, characterised in that the cover is a flap arranged in a pivotable or displaceable manner on the jacket wall .
A rotating heavy-duty running gear with - a support structure , - at least one roller cassette that is rotatable about a vertical axis and has, respectively, at least one roller , wherein the at least one roller cassette is arranged on the bottom side of the support structure , - at least one lifting receptacle provided in the support structure for carrying out a lifting movement in a vertical direction, wherein the at least one lifting receptacle is configured to grip a load and lift it, and wherein a drive that is configured to drive the lifting receptacle for carrying out a lifting movement is assigned to the lifting receptacle , wherein a path sensor 63 that serves to detect a measure of the lifting movement is assigned to each of the at least one lifting receptacle(s) , characterized in that the rotating heavy-duty running gear has a pull-out transport handle . - a support structure , - at least one roller cassette that is rotatable about a vertical axis and has, respectively, at least one roller , wherein the at least one roller cassette is arranged on the bottom side of the support structure , - at least one lifting receptacle provided in the support structure for carrying out a lifting movement in a vertical direction, wherein the at least one lifting receptacle is configured to grip a load and lift it, and wherein a drive that is configured to drive the lifting receptacle for carrying out a lifting movement is assigned to the lifting receptacle , wherein a path sensor 63 that serves to detect a measure of the lifting movement is assigned to each of the at least one lifting receptacle(s) ,
Textile yarn comprising a core yarn coated in a silicone polymer , the siliconized yarn (F) being adapted for weaving or knitting, characterized in that : the silicone polymer is present as a concentric sheath around the core yarn; the coated textile yarn is calibrated and includes between 15% and 85% by weight of reticulated silicone polymer relative to the total weight of coated yarn. the silicone polymer is present as a concentric sheath around the core yarn; the coated textile yarn is calibrated and includes between 15% and 85% by weight of reticulated silicone polymer relative to the total weight of coated yarn.
Method for manufacturing a foamed injection moulded article comprising a) chain branching of a high density polyethylene by electron beam irradiation, the high density polyethylene (HDPE) having a - MI in the range between ≥ 1 and ≤ 100 and - density in the range between ≥ 930 and ≤ 985 kg/m3 resulting in HDPE having - MI (melt index) in the range between ≥ 0.01 and ≤ 50 - density in the range between ≥ 930 and ≤ 985 kg/m3 and - a gel fraction less than 5% - a quotient of melt strength and apparent viscosity > 2 cN/k.Pa.s wherein the MI (melt index) is measured according to ISO 1133-1:2011 at a temperature of 190 °C at a load of 2.16 kg, the density is measured at a temperature of 23°C according to ISO 1183-1:2012, the gel fraction is determined according to ASTM D2765-11, the melt strength of the high density polyethylene is determined as described in ISO 16790:2005 under the conditions described in the description, the apparent viscosity is determined as described in ISO 11443:2014 under the conditions described in the description, b) injection moulding foaming the obtained HDPE using a physical or chemical blowing agent. a) chain branching of a high density polyethylene by electron beam irradiation, the high density polyethylene (HDPE) having a - MI in the range between ≥ 1 and ≤ 100 and - density in the range between ≥ 930 and ≤ 985 kg/m3 resulting in HDPE having - MI (melt index) in the range between ≥ 0.01 and ≤ 50 - density in the range between ≥ 930 and ≤ 985 kg/m3 and - a gel fraction less than 5% - a quotient of melt strength and apparent viscosity > 2 cN/k.Pa.s wherein the MI (melt index) is measured according to ISO 1133-1:2011 at a temperature of 190 °C at a load of 2.16 kg, the density is measured at a temperature of 23°C according to ISO 1183-1:2012, the gel fraction is determined according to ASTM D2765-11, the melt strength of the high density polyethylene is determined as described in ISO 16790:2005 under the conditions described in the description, the apparent viscosity is determined as described in ISO 11443:2014 under the conditions described in the description, - MI in the range between ≥ 1 and ≤ 100 and - density in the range between ≥ 930 and ≤ 985 kg/m3 - MI (melt index) in the range between ≥ 0.01 and ≤ 50 - density in the range between ≥ 930 and ≤ 985 kg/m3 and - a gel fraction less than 5% - a quotient of melt strength and apparent viscosity > 2 cN/k.Pa.s the MI (melt index) is measured according to ISO 1133-1:2011 at a temperature of 190 °C at a load of 2.16 kg, the density is measured at a temperature of 23°C according to ISO 1183-1:2012, the gel fraction is determined according to ASTM D2765-11, the melt strength of the high density polyethylene is determined as described in ISO 16790:2005 under the conditions described in the description, the apparent viscosity is determined as described in ISO 11443:2014 under the conditions described in the description, b) injection moulding foaming the obtained HDPE using a physical or chemical blowing agent.
A method implemented in a crude oil refining facility, the method comprising: in a crude oil refining facility comprising a plurality of oil refining plants, each oil refining plant configured to perform at least one oil refining process, each oil refining plant comprising a plurality of interconnected oil refining sub-systems, wherein a plurality of streams at respective temperatures flow between the plurality of oil refining sub-systems: flowing a gas separation plant stream, an acid gas regenerator bottoms stream and an aromatics complex stream from a gas separation plant, an amine regeneration plant and an aromatics complex of the plurality of oil refining plants to one or more heat exchangers; flowing an aromatics complex stream from an aromatics complex of the plurality of oil refining plants to the one or more heat exchangers, wherein the one or more heat exchangers transfer heat from at least one of the gas separation plant stream, the acid gas regenerator bottoms stream and the aromatics complex stream to the aromatics complex stream; and utilizing the heated aromatics complex stream in an oil refining process at the aromatics complex stream. flowing a gas separation plant stream, an acid gas regenerator bottoms stream and an aromatics complex stream from a gas separation plant, an amine regeneration plant and an aromatics complex of the plurality of oil refining plants to one or more heat exchangers; flowing an aromatics complex stream from an aromatics complex of the plurality of oil refining plants to the one or more heat exchangers, wherein the one or more heat exchangers transfer heat from at least one of the gas separation plant stream, the acid gas regenerator bottoms stream and the aromatics complex stream to the aromatics complex stream; and utilizing the heated aromatics complex stream in an oil refining process at the aromatics complex stream.
A structure, comprising: - a substrate , - an insulating layer above the substrate, - a first metal layer above a first portion of the insulating layer, - a first porous region of anodic oxide, above and in contact with the first metal layer, and - a second porous region of anodic oxide, surrounding the first porous region, in contact with a second portion of the insulating layer adjacent to the first portion of the insulating layer, and in contact with the first metal layer, the second porous region forming an insulating region. - a substrate , - an insulating layer above the substrate, - a first metal layer above a first portion of the insulating layer, - a first porous region of anodic oxide, above and in contact with the first metal layer, and - a second porous region of anodic oxide, surrounding the first porous region, in contact with a second portion of the insulating layer adjacent to the first portion of the insulating layer, and in contact with the first metal layer, the second porous region forming an insulating region.
A method for cleaning fuel oil for a diesel engine on board a ship, comprising the steps of - providing a fuel oil to be cleaned; - supplying said fuel oil to be cleaned to a centrifugal separator ; - cleaning said fuel oil in the centrifugal separator to provide a clean oil phase; characterized in that the method further comprises the steps of - measuring the viscosity of the fuel oil to be cleaned before cleaning in said centrifugal separator or the viscosity of the clean oil phase, and - regulating the temperature of the fuel oil to be cleaned based on said measured viscosity, comprising changing the temperature so that the viscosity of the oil to be cleaned is kept below a specific maximum viscosity v max wherein the viscosity of the oil is kept at a setpoint viscosity value v set that is below said specific maximum viscosity v max or within a specific viscosity interval that is below said specific maximum viscosity v max , and wherein the step of regulating the temperature of the fuel oil comprises comparing the measured viscosity to the setpoint viscosity value v set and decreasing the temperature if the measured viscosity is lower than v set and increasing the temperature if the measured viscosity is higher than v set . - providing a fuel oil to be cleaned; - supplying said fuel oil to be cleaned to a centrifugal separator ; - cleaning said fuel oil in the centrifugal separator to provide a clean oil phase; characterized in that the method further comprises the steps of - measuring the viscosity of the fuel oil to be cleaned before cleaning in said centrifugal separator or the viscosity of the clean oil phase, and - regulating the temperature of the fuel oil to be cleaned based on said measured viscosity, comprising changing the temperature so that the viscosity of the oil to be cleaned is kept below a specific maximum viscosity v max
A method implemented by a first device, the method comprising: sensing at least one of a user input and an event occurring within a screen area of the first device ; displaying a first type of control element and a first parameter associated with the first type of control element on the screen area based on the sensing, the first type of control element being movable within the screen area ; receiving a first user interaction on the screen area, the first user interaction including a first dragging of the first type of control element to the first parameter and holding it there ; displaying a second parameter associated with the first parameter on the screen area based on the first user interaction ; receiving a second user interaction on the screen area, the second user interaction including a second dragging of the first type of control element to the second parameter and dropping it there ; and executing at least one function of the first device or a second device connected to the first device based on a linkage of the first type of control element with the first and second parameters . sensing at least one of a user input and an event occurring within a screen area of the first device ; displaying a first type of control element and a first parameter associated with the first type of control element on the screen area based on the sensing, the first type of control element being movable within the screen area ; receiving a first user interaction on the screen area, the first user interaction including a first dragging of the first type of control element to the first parameter and holding it there ; displaying a second parameter associated with the first parameter on the screen area based on the first user interaction ; receiving a second user interaction on the screen area, the second user interaction including a second dragging of the first type of control element to the second parameter and dropping it there ; and executing at least one function of the first device or a second device connected to the first device based on a linkage of the first type of control element with the first and second parameters .
A method of fabricating a friction part out of composite material, the method comprising at least the following step: - densifying a carbon yarn fiber preform with a matrix comprising at least pyrolytic carbon and a ZrO x C y phase, where 1 ≤ x ≤ 2 and 0 ≤ y ≤ 1, the matrix being formed by film-boiling or by chemical vapor infiltration from a first precursor for pyrolytic carbon and a second precursor that includes zirconium, the second precursor being a zirconium complex comprising an alcoxy or carboxylate ligand bonded to zirconium. - densifying a carbon yarn fiber preform with a matrix comprising at least pyrolytic carbon and a ZrO x C y phase, where 1 ≤ x ≤ 2 and 0 ≤ y ≤ 1, the matrix being formed by film-boiling or by chemical vapor infiltration from a first precursor for pyrolytic carbon and a second precursor that includes zirconium, the second precursor being a zirconium complex comprising an alcoxy or carboxylate ligand bonded to zirconium.