mhurhangee/patent-ind-claim-en huggingface dataset:
A fluid applicator including a contact detector device for detecting contact, and in particular direct or indirect contact with the skin, the applicator being characterized in that the contact detector device includes a flexible outer substrate (S1) that defines an outer contact surface (S11), the flexible outer substrate (S1) covering a detection zone (Z) that comprises a plurality of conductive chips (P1, P2, P3, P4, P5) that are separate from one another, the conductive chips (P1, P2, P3, P4, P5) being arranged above a common conductive plate (D), the conductive chips (P1, P2, P3, P4, P5), in the absence of stress, being spaced apart from the common conductive plate (D) by insulating spacers (C), so that pressure exerted on the flexible outer substrate (S1) causes at least one of the conductive chips (P1, P2, P3, P4, P5) to come into contact with the common conductive plate (D), thereby creating at least one short-circuit signal.
A silicone hydrogel composition comprising: a first hydrophilic monomer having an acrylate group or an acrylamide group; a siloxane compound having an acrylate group or an acrylamide group; a first crosslinking monomer having a plurality of acrylate groups or acrylamide groups; a second hydrophilic monomer having a non-conjugated vinyl group; and a second crosslinking monomer having a plurality of non-conjugated vinyl groups; wherein a sum of the weight of the second hydrophilic monomer and the weight of the second crosslinking monomer is 40 to 100 parts by weight, relative to 100 parts by weight of a sum of a weight of the first hydrophilic monomer, the weight of the siloxane compound, and the weight of the first crosslinking monomer. a first hydrophilic monomer having an acrylate group or an acrylamide group; a siloxane compound having an acrylate group or an acrylamide group; a first crosslinking monomer having a plurality of acrylate groups or acrylamide groups; a second hydrophilic monomer having a non-conjugated vinyl group; and a second crosslinking monomer having a plurality of non-conjugated vinyl groups; wherein a sum of the weight of the second hydrophilic monomer and the weight of the second crosslinking monomer is 40 to 100 parts by weight, relative to 100 parts by weight of a sum of a weight of the first hydrophilic monomer, the weight of the siloxane compound, and the weight of the first crosslinking monomer.
Use of expandable graphite for reducing the flammability and/or combustibility, in particular use as flame retarding agents and/or fire retarding agents, for materials and/or products and/or pre-products, consisting of wood fibers and/or cellulose fibers and/or of wood powders and/or cellulose powders and/or or wood granulates and/or cellulose granulates and/or polyolefin- or polystyrene-based materials, or comprising these, in particular for materials and/or products and/or pre-products containing binders and/or glues and/or polyolefin- or polystyrene-based matters, preferably for the insulation, including wall, floor, ceiling, and/or for floor coverings and wall coverings, and wherein the amount of expandable graphite in the expandable graphite-containing materials and/or products is not more than 45 wt.-% based on the total expandable graphite-containing material and/or product and/or pre-product as 100 wt.-%, wherein the use of expandable graphite is carried out in combination with a further agent for reducing the flammability and/or combustibility of materials and/or products and/or pre-products, in particular as flame retarding agents and/or fire retarding agents, comprising, in each case based on the entire expandable graphite-containing material and/or product and/or pre-product as 100 wt.-%, (i) not more than 45 wt.-% of expandable graphite; and (ii) as the further agent up to 15 wt.-% of a combination and/or a mixture of boric acid/borax/alkali chloride, in each case based on the combination and/or the mixture as 100 wt.-% containing or consisting of: a) 30 to 70 wt.-% boric acid; b) 30 to 70 wt.-% borax; c) an alkali chloride, preferably sodium chloride, in an amount of less than 5 wt.-%; and d) if desired, urea up to 5 wt.-%. (i) not more than 45 wt.-% of expandable graphite; and (ii) as the further agent up to 15 wt.-% of a combination and/or a mixture of boric acid/borax/alkali chloride, in each case based on the combination and/or the mixture as 100 wt.-% containing or consisting of: a) 30 to 70 wt.-% boric acid; b) 30 to 70 wt.-% borax; c) an alkali chloride, preferably sodium chloride, in an amount of less than 5 wt.-%; and d) if desired, urea up to 5 wt.-%. a) 30 to 70 wt.-% boric acid; b) 30 to 70 wt.-% borax; c) an alkali chloride, preferably sodium chloride, in an amount of less than 5 wt.-%; and d) if desired, urea up to 5 wt.-%.
An isolated nucleic acid molecule encoding a chimeric antigen receptor (CAR) comprising at least one extracellular antigen binding domain comprising a mesothelin antigen binding domain encoded by a nucleotide sequence comprising SEQ ID NO: 3, 5, or 7, at least one transmembrane domain, and at least one intracellular signaling domain.
A method implemented in a User Equipment, UE , of transmitting a physical channel in different frequency domain resources over time, the method comprising: determining a value of a hopping index for a first set of N consecutive slots, wherein the N is an integer greater than 1; after the N consecutive slots, incrementing the value of the hopping index for a second set of N consecutive slots; resetting the value of the hopping index to zero if the hopping index exceeds a maximum value; for an uplink slot within the second set of N consecutive slots in which a physical uplink channel is to be transmitted: determining a set of physical resource blocks, PRBs, in which to transmit the physical channel from a set of frequency offsets according to the value of the hopping index for the second set of N consecutive slots, wherein the value of the hopping index is defined as: n hop = ⌊ n s , f μ / N ⌋ mod L where n hop is the hopping index, n s , f μ is a physical slot number of a slot to which the hopping index applies, N is the number of consecutive slots to which the hopping index applies, and L - 1 is a maximum value of the hopping index where the hopping index is a value in a range of and including 0 to L - 1; and transmitting the physical uplink channel in the selected set of PRBs in the uplink slot. determining a value of a hopping index for a first set of N consecutive slots, wherein the N is an integer greater than 1; after the N consecutive slots, incrementing the value of the hopping index for a second set of N consecutive slots; resetting the value of the hopping index to zero if the hopping index exceeds a maximum value; for an uplink slot within the second set of N consecutive slots in which a physical uplink channel is to be transmitted: determining a set of physical resource blocks, PRBs, in which to transmit the physical channel from a set of frequency offsets according to the value of the hopping index for the second set of N consecutive slots, wherein the value of the hopping index is defined as: n hop = ⌊ n s , f μ / N ⌋ mod L where n hop is the hopping index, n s , f μ is a physical slot number of a slot to which the hopping index applies, N is the number of consecutive slots to which the hopping index applies, and L - 1 is a maximum value of the hopping index where the hopping index is a value in a range of and including 0 to L - 1; and transmitting the physical uplink channel in the selected set of PRBs in the uplink slot.
A method for transmitting a signal, comprising: determining a time-frequency resource for a reference signal required for demodulating a control channel, wherein the time-frequency resource for the reference signal comprises multiple sets of resource groups, and the resource group comprises two resource elements, RE, that are consecutive in a frequency domain, wherein the time-frequency resource for the reference signal comprises two resource groups in one control channel resource unit; and transmitting the reference signal via the time-frequency resource for the reference signal; characterized in that : for a plurality of terminal devices, the time-frequency resource for the reference signal is mapped, along with a configured control channel resource unit where the time-frequency resource for the reference signal is located, in a first control region within a system bandwidth in a manner of first a frequency domain and then a time domain, or in a manner of first the time domain and then the frequency domain; wherein when adjacent beams transmit the reference signal to the same terminal device using a joint transmission mode, locations of the time-frequency resource for the reference signal are the same for the adjacent beams. determining a time-frequency resource for a reference signal required for demodulating a control channel, wherein the time-frequency resource for the reference signal comprises multiple sets of resource groups, and the resource group comprises two resource elements, RE, that are consecutive in a frequency domain, wherein the time-frequency resource for the reference signal comprises two resource groups in one control channel resource unit; and transmitting the reference signal via the time-frequency resource for the reference signal; characterized in that : for a plurality of terminal devices, the time-frequency resource for the reference signal is mapped, along with a configured control channel resource unit where the time-frequency resource for the reference signal is located, in a first control region within a system bandwidth in a manner of first a frequency domain and then a time domain, or in a manner of first the time domain and then the frequency domain; wherein when adjacent beams transmit the reference signal to the same terminal device using a joint transmission mode, locations of the time-frequency resource for the reference signal are the same for the adjacent beams. for a plurality of terminal devices, the time-frequency resource for the reference signal is mapped, along with a configured control channel resource unit where the time-frequency resource for the reference signal is located, in a first control region within a system bandwidth in a manner of first a frequency domain and then a time domain, or in a manner of first the time domain and then the frequency domain; wherein when adjacent beams transmit the reference signal to the same terminal device using a joint transmission mode, locations of the time-frequency resource for the reference signal are the same for the adjacent beams.
An overheat protection device, comprising: a first electrode and a second electrode disposed to be spaced apart; a hot-melt wire located between the first electrode and the second electrode, the hot-melt wire being in electrical contact with the first electrode and the second electrode; and an insulator supporting the first electrode and the second electrode, wherein the hot-melt wire is melted into a liquid hot-melt material when the ambient temperature reaches a predetermined temperature, the liquid hot-melt material wets the first electrode and the second electrode, and the liquid hot-melt material does not wet the insulator at least at a portion located between the first electrode and the second electrode; characterised in that the insulator comprises a cylindrical structure , and the first electrode, the second electrode, and the hot-melt wire are disposed in the cylindrical structure; and in that at least one of the first electrode and the second electrode is a sponge electrode having a porous structure such that the liquid hotmelt material is more easily adsorbed. a first electrode and a second electrode disposed to be spaced apart; a hot-melt wire located between the first electrode and the second electrode, the hot-melt wire being in electrical contact with the first electrode and the second electrode; and an insulator supporting the first electrode and the second electrode, wherein the hot-melt wire is melted into a liquid hot-melt material when the ambient temperature reaches a predetermined temperature, the liquid hot-melt material wets the first electrode and the second electrode, and the liquid hot-melt material does not wet the insulator at least at a portion located between the first electrode and the second electrode; characterised in that the insulator comprises a cylindrical structure , and the first electrode, the second electrode, and the hot-melt wire are disposed in the cylindrical structure; and in that at least one of the first electrode and the second electrode is a sponge electrode having a porous structure such that the liquid hotmelt material is more easily adsorbed.
An enzyme-powered nanomotor, comprising: - a particle with a surface; - a said enzyme; and - a heterologous molecule which is different from the enzyme; characterized in that the enzyme and the heterologous molecule are discontinuously attached over the whole surface of the particle. - a particle with a surface; - a said enzyme; and - a heterologous molecule which is different from the enzyme;
A process for separation of components in a biomass catalytic pyrolysis process effluent, comprising steps: a) fractionating the biomass catalytic pyrolysis effluent to produce a naphthalene-rich oil effluent typically boiling in a temperature range of from about 200 to about 575°C, a phenolic oil effluent typically boiling in a temperature range from 80 to 220°C, and a gaseous effluent comprising off gas, water and BTX, and b) separating and partially condensing the gaseous effluent from step a) comprising off gas, water and BTX to produce a gaseous effluent comprising off gas and gaseous BTX, a liquid effluent comprising hydrocarbons including hydrocarbons selected from the group consisting of benzene, toluene, xylenes and combinations thereof, and a liquid effluent comprising water and less than 1,000 ppmw phenolic compounds. a) fractionating the biomass catalytic pyrolysis effluent to produce a naphthalene-rich oil effluent typically boiling in a temperature range of from about 200 to about 575°C, a phenolic oil effluent typically boiling in a temperature range from 80 to 220°C, and a gaseous effluent comprising off gas, water and BTX, and b) separating and partially condensing the gaseous effluent from step a) comprising off gas, water and BTX to produce a gaseous effluent comprising off gas and gaseous BTX, a liquid effluent comprising hydrocarbons including hydrocarbons selected from the group consisting of benzene, toluene, xylenes and combinations thereof, and a liquid effluent comprising water and less than 1,000 ppmw phenolic compounds.
A solid state lighting switch configured for providing a dimming indication and a color indication to a solid state lighting fixture , the solid state lighting switch comprising: a first input control configured to adjust the dimming indication and/or the color indication to be provided to the solid state lighting fixture ; and characterised by comprising: a selective linking mechanism configured to selectively activate a linked mode of operation of the switch to link the dimming indication and the color indication, so that the dimming indication and the color indication are linked together as the first input control is manipulated; and wherein the selective linking mechanism is further configured to selectively activate an unlinked mode of operation of the switch to unlink the dimming indication and the color indication so that the dimming indication and the color indication are not linked together as the first input control is manipulated. a selective linking mechanism configured to selectively activate a linked mode of operation of the switch to link the dimming indication and the color indication, so that the dimming indication and the color indication are linked together as the first input control is manipulated; and wherein the selective linking mechanism is further configured to selectively activate an unlinked mode of operation of the switch to unlink the dimming indication and the color indication so that the dimming indication and the color indication are not linked together as the first input control is manipulated.
An integrated circuit operable to interface with an external debug tool with which a user supplies debug commands, wherein the integrated circuit comprises: programmable circuitry comprising: a debug master coupled to the debug tool and is adapted to receive commands from the debug tool ; hardwired system-on-chip circuitry comprising: system-on-chip interconnects coupled to the debug master implemented in the programmable circuitry ; a microprocessor subsystem having processing circuitry , cache , and a memory coherency control unit configured to maintain coherency during memory access operations to the cache , wherein the microprocessor subsystem is coupled to the system-on-chip interconnects with a bus ; and a command translator interposed in the bus between the system-on-chip interconnects and the microprocessor subsystem , wherein the command translator is adapted to translate commands received from the debug master and to provide corresponding translated commands to the memory coherency control unit over the bus . programmable circuitry comprising: a debug master coupled to the debug tool and is adapted to receive commands from the debug tool ; hardwired system-on-chip circuitry comprising: system-on-chip interconnects coupled to the debug master implemented in the programmable circuitry ; a microprocessor subsystem having processing circuitry , cache , and a memory coherency control unit configured to maintain coherency during memory access operations to the cache , wherein the microprocessor subsystem is coupled to the system-on-chip interconnects with a bus ; and a command translator interposed in the bus between the system-on-chip interconnects and the microprocessor subsystem , wherein the command translator is adapted to translate commands received from the debug master and to provide corresponding translated commands to the memory coherency control unit over the bus . system-on-chip interconnects coupled to the debug master implemented in the programmable circuitry ; a microprocessor subsystem having processing circuitry , cache , and a memory coherency control unit configured to maintain coherency during memory access operations to the cache , wherein the microprocessor subsystem is coupled to the system-on-chip interconnects with a bus ; and a command translator interposed in the bus between the system-on-chip interconnects and the microprocessor subsystem , wherein the command translator is adapted to translate commands received from the debug master and to provide corresponding translated commands to the memory coherency control unit over the bus .
Heating element for supplying an inhalable aerosol, comprising: a basic body comprising an electrically insulating material; a heating structure arranged on the basic body ; and a cover layer adapted to fix the heating structure on the basic body , wherein the basic body comprises a sleeve, characterised in that the heating structure is incorporated into a metallic foil as a conductor path and the accordingly structured metallic foil is in turn arranged in the basic body and held by the cover layer . a basic body comprising an electrically insulating material; a heating structure arranged on the basic body ; and a cover layer adapted to fix the heating structure on the basic body , wherein the basic body comprises a sleeve, characterised in that the heating structure is incorporated into a metallic foil as a conductor path and the accordingly structured metallic foil is in turn arranged in the basic body and held by the cover layer .
An intraosseous needle assembly comprising: a needle comprising a first cylindrical shaft having a distal end, a proximal end, and a wall that defines an inner channel , the first cylindrical shaft comprising one or more threads protruding from the wall along a proximal portion of the first cylindrical shaft , the proximal portion positioned adjacent to the proximal end; and a needle head extending from the proximal end of the first cylindrical shaft , the needle head comprising: a fitting comprising a slot and a pair of substantially parallel side walls ; a hexagonal torque structure positioned between the fitting and the cylindrical shaft , wherein the hexagonal torque structure comprises at least two opposing flat surfaces ; a cone positioned between the hexagonal torque structure and the cylindrical shaft ; and a head channel aligned with the inner channel of the cylindrical shaft and extending through the needle head . a needle comprising a first cylindrical shaft having a distal end, a proximal end, and a wall that defines an inner channel , the first cylindrical shaft comprising one or more threads protruding from the wall along a proximal portion of the first cylindrical shaft , the proximal portion positioned adjacent to the proximal end; and a needle head extending from the proximal end of the first cylindrical shaft , the needle head comprising: a fitting comprising a slot and a pair of substantially parallel side walls ; a hexagonal torque structure positioned between the fitting and the cylindrical shaft , wherein the hexagonal torque structure comprises at least two opposing flat surfaces ; a cone positioned between the hexagonal torque structure and the cylindrical shaft ; and a head channel aligned with the inner channel of the cylindrical shaft and extending through the needle head . a fitting comprising a slot and a pair of substantially parallel side walls ; a hexagonal torque structure positioned between the fitting and the cylindrical shaft , wherein the hexagonal torque structure comprises at least two opposing flat surfaces ; a cone positioned between the hexagonal torque structure and the cylindrical shaft ; and a head channel aligned with the inner channel of the cylindrical shaft and extending through the needle head .
A network access control method, wherein the method is performed by a first network function management module in a first public land mobile network, PLMN, and the method comprises: receiving a discovery request from a first network function, NF, instance, wherein the discovery request comprises an identifier of a second PLMN, an NF type of a to-be-accessed NF instance, and a to-be-accessed network slice identifier that corresponds to the NF type of the to-be-accessed NF instance; obtaining the to-be-accessed network slice identifier from the discovery request; sending an obtaining request to a second network function management module corresponding to the identifier of the second PLMN, wherein the obtaining request comprises the NF type of the to-be-accessed NF instance and the to-be-accessed network slice identifier; receiving , from the second network function management module, instance information of a second NF instance, wherein the instance information of the second NF instance is corresponding to the NF type of the to-be-accessed NF instance and the to-be-accessed network slice identifier; and sending the instance information of the second NF instance to the first NF instance. receiving a discovery request from a first network function, NF, instance, wherein the discovery request comprises an identifier of a second PLMN, an NF type of a to-be-accessed NF instance, and a to-be-accessed network slice identifier that corresponds to the NF type of the to-be-accessed NF instance; obtaining the to-be-accessed network slice identifier from the discovery request; sending an obtaining request to a second network function management module corresponding to the identifier of the second PLMN, wherein the obtaining request comprises the NF type of the to-be-accessed NF instance and the to-be-accessed network slice identifier; receiving , from the second network function management module, instance information of a second NF instance, wherein the instance information of the second NF instance is corresponding to the NF type of the to-be-accessed NF instance and the to-be-accessed network slice identifier; and sending the instance information of the second NF instance to the first NF instance.