mhurhangee/patent-ind-claim-en huggingface dataset:
A water-in-oil emulsion sunscreen cosmetic comprising: (A) 6 to 40 mass% of a UV protective agent; (B) an organic-modified clay mineral; (C) an oil-phase-thickening agent, other than (B); and (D) a silicone-based surfactant having an HLB of less than 8, and (E) one or more non-volatile liquid oils except silicone oils, wherein the ratio, [total quantity of component (B) and component (C)] / [total quantity of (E) non-volatile liquid oils except silicone oils], is 0.04 or more and less than 0.68, wherein, (D) the silicone-based surfactant having an HLB of less than 8 is at least one selected from the group consisting of: a polyoxyalkylene-modified silicone represented by the following general formula : where, R denotes a C 1-3 alkyl group or a phenyl group; R' denotes a hydrogen or a C 1-12 alkyl group; q is 1 to 50; m is 1 to 100; n and x are each 1 to 50; and y is 0 to 50; and a polyglycerin-modified silicone represented by the following formula : where, R 1 denotes a linear or branched C 1-12 alkyl group or a phenyl group; R 2 denotes a C 2-11 alkylene group; p is 10 to 120; and q is 1 to 11. (A) 6 to 40 mass% of a UV protective agent; (B) an organic-modified clay mineral; (C) an oil-phase-thickening agent, other than (B); and (D) a silicone-based surfactant having an HLB of less than 8, and (E) one or more non-volatile liquid oils except silicone oils, a polyoxyalkylene-modified silicone represented by the following general formula : where, R denotes a C 1-3 alkyl group or a phenyl group; R' denotes a hydrogen or a C 1-12 alkyl group; q is 1 to 50; m is 1 to 100; n and x are each 1 to 50; and y is 0 to 50; and a polyglycerin-modified silicone represented by the following formula : where, R 1 denotes a linear or branched C 1-12 alkyl group or a phenyl group; R 2 denotes a C 2-11 alkylene group; p is 10 to 120; and q is 1 to 11.
A guide mechanism, comprising: a first jaw and a second jaw pivotably coupled to the first jaw , the first and second jaws forming a guide having a bottom pocket adapted for seating arrangement of the guide on a box end of a first tubular and a top funnel configured for laterally guiding a pin end of a second tubular into the box end ; a linkage system secured to the first and second jaws and adapted to control pivoting motion of the jaws , wherein the linkage system includes a pair of main links pivotally coupled to one another at a central location outside the first and second jaw ; and a bias mechanism coupled to the linkage system and configured to impart a biasing force on the first jaw and the second jaw via the linkage system , the biasing force adapted to resist opening of the jaws such that opening of the jaws occurs when a lateral force is applied to the guide mechanism that overcomes the biasing force. a first jaw and a second jaw pivotably coupled to the first jaw , the first and second jaws forming a guide having a bottom pocket adapted for seating arrangement of the guide on a box end of a first tubular and a top funnel configured for laterally guiding a pin end of a second tubular into the box end ; a linkage system secured to the first and second jaws and adapted to control pivoting motion of the jaws , wherein the linkage system includes a pair of main links pivotally coupled to one another at a central location outside the first and second jaw ; and a bias mechanism coupled to the linkage system and configured to impart a biasing force on the first jaw and the second jaw via the linkage system , the biasing force adapted to resist opening of the jaws such that opening of the jaws occurs when a lateral force is applied to the guide mechanism that overcomes the biasing force.
A micro titration calorimetry system comprising: a sample cell and a sample cell stem providing access to the sample cell ; an automatic pipette assembly with a titration needle arranged to be inserted into the sample cell for supplying titrant; and a pipette guiding mechanism arranged to guide the pipette assembly between and into at least two positions of operation; wherein: a first position of operation is a pipette washing position wherein the titration needle is inserted in a washing apparatus , and a second position of operation is a titration position wherein the titration needle is inserted into the sample cell for calorimetric measurements; the pipette assembly comprises a housing having an attachment section for precise positioning of the pipette assembly with respect to the sample cell stem ; the guiding mechanism comprises a pipette arm that supports the pipette assembly , an essentially vertical guide rod , and an alignment means for receiving the attachment section in the titration position ; wherein the pipette assembly comprises a chamfer on the attachment section. a sample cell and a sample cell stem providing access to the sample cell ; an automatic pipette assembly with a titration needle arranged to be inserted into the sample cell for supplying titrant; and a pipette guiding mechanism arranged to guide the pipette assembly between and into at least two positions of operation; wherein: a first position of operation is a pipette washing position wherein the titration needle is inserted in a washing apparatus , and a second position of operation is a titration position wherein the titration needle is inserted into the sample cell for calorimetric measurements; the pipette assembly comprises a housing having an attachment section for precise positioning of the pipette assembly with respect to the sample cell stem ; the guiding mechanism comprises a pipette arm that supports the pipette assembly , an essentially vertical guide rod , and an alignment means for receiving the attachment section in the titration position ; wherein the pipette assembly comprises a chamfer on the attachment section.
A gas turbine engine comprising: a compressor section ; a combustor section ; a diffuser case module with a multiple of struts within an annular flow path from said compressor section to said combustor section, wherein at least one of said multiple of struts defines a mid-span pre-diffuser inlet in communication with said annular flow path , wherein the mid-span pre-diffuser inlet is configured such that a pre-diffuser airflow is tapped through the mid-span pre-diffuser inlet ; and a manifold in communication with said mid-span pre-diffuser inlet and said combustor section ; characterized in that the manifold communicates with a burner in the combustor section to generate a burner exit temperature profile by selective direction and communication of the relatively cooler mid-span airflow, providing a relatively hotter annular mid-span zone with respect to a relatively cooler outer diameter zone and inner diameter zone. a compressor section ; a combustor section ; a diffuser case module with a multiple of struts within an annular flow path from said compressor section to said combustor section, wherein at least one of said multiple of struts defines a mid-span pre-diffuser inlet in communication with said annular flow path , wherein the mid-span pre-diffuser inlet is configured such that a pre-diffuser airflow is tapped through the mid-span pre-diffuser inlet ; and a manifold in communication with said mid-span pre-diffuser inlet and said combustor section ; characterized in that the manifold communicates with a burner in the combustor section to generate a burner exit temperature profile by selective direction and communication of the relatively cooler mid-span airflow, providing a relatively hotter annular mid-span zone with respect to a relatively cooler outer diameter zone and inner diameter zone.
Fault arc detection unit (SLE) for a low-voltage AC circuit, - comprising at least one Rogowski coil (RS1) for ascertaining the electric current level of a conductor (L1) of the low-voltage AC circuit, which Rogowski coil outputs an analogue voltage (A1) that is equivalent to the electric current level of the conductor, - comprising at least one voltage sensor (SS) for ascertaining the level of the voltage of the conductor (L1) of the low-voltage AC circuit, - comprising a microprocessor (MP) that carries out a fault arc detection with the ascertained current level and voltage level of the low-voltage AC circuit and, when at least one limit value is exceeded, outputs a fault arc detection signal (SLES), characterized in that the Rogowski coil (RS1) is connected to an analogue integrator (INT) that is followed by an analogue-digital converter (ADU) that converts the integrated analogue voltage (uc(t)) into a digital signal (P1) that is processed further by the microprocessor (MP) in such a way that the phase shift generated by the Rogowski coil (RS1) and by components that follow the Rogowski coil is compensated for, so that correct-phase current values (ip(t)) are ascertained and used for the fault arc detection. - comprising at least one Rogowski coil (RS1) for ascertaining the electric current level of a conductor (L1) of the low-voltage AC circuit, which Rogowski coil outputs an analogue voltage (A1) that is equivalent to the electric current level of the conductor, - comprising at least one voltage sensor (SS) for ascertaining the level of the voltage of the conductor (L1) of the low-voltage AC circuit, - comprising a microprocessor (MP) that carries out a fault arc detection with the ascertained current level and voltage level of the low-voltage AC circuit and, when at least one limit value is exceeded, outputs a fault arc detection signal (SLES),
A portable computing device (A1) comprising - an upper device unit (A2) having a display device (A3), - a lower device unit (A4) having an input device (A5), and - a connecting device for connecting the upper device unit (A2) to the lower device unit (A4), comprising - a first connecting element (A6a), which is pivotably attached with a first end (A6a-1) to a first side (A2a) of the upper device unit (A2) and with a second end (A6a-2) to a first side (A4a) of the lower device unit (A4), in each case a pivotability of up to 360 degrees being given, and - a second connecting element (A6b), which is pivotably attached with a first end (A6b-1) to a second side (A2b) of the upper device unit (A2) and with a second end (A6b-2) to a second side (A4b) of the lower device unit (A4), in each case a pivotability of up to 360 degrees being given, wherein the first connecting element (A6a) and the second connecting element (A6b) are each telescopically adjustable such that the length of the connecting device is adjustable. - an upper device unit (A2) having a display device (A3), - a lower device unit (A4) having an input device (A5), and - a connecting device for connecting the upper device unit (A2) to the lower device unit (A4), comprising - a first connecting element (A6a), which is pivotably attached with a first end (A6a-1) to a first side (A2a) of the upper device unit (A2) and with a second end (A6a-2) to a first side (A4a) of the lower device unit (A4), in each case a pivotability of up to 360 degrees being given, and - a second connecting element (A6b), which is pivotably attached with a first end (A6b-1) to a second side (A2b) of the upper device unit (A2) and with a second end (A6b-2) to a second side (A4b) of the lower device unit (A4), in each case a pivotability of up to 360 degrees being given, - a first connecting element (A6a), which is pivotably attached with a first end (A6a-1) to a first side (A2a) of the upper device unit (A2) and with a second end (A6a-2) to a first side (A4a) of the lower device unit (A4), in each case a pivotability of up to 360 degrees being given, and - a second connecting element (A6b), which is pivotably attached with a first end (A6b-1) to a second side (A2b) of the upper device unit (A2) and with a second end (A6b-2) to a second side (A4b) of the lower device unit (A4), in each case a pivotability of up to 360 degrees being given,
Method for controlling a device for charging a motor vehicle battery, the charging device comprising a rectifier stage providing a power factor correction function, having three phase connections (A, B, C) each able to be connected at input to a single-phase electricity supply grid or three-phase electricity supply grid by way of a series inductive coil (L1, L2, L3), and a DC-to-DC converter stage connected between the rectifier stage and the battery , the rectifier stage being a three-phase Vienna rectifier comprising a three-phase diode bridge (D1-D6) and three switching arms (S1, S2, S3) integrated into the diode bridge, each comprising a series assembly of a high-side switch (1H-3H) able to be driven when the grid current is positive and of a low-side switch (1L-3L) able to be driven when the grid current is negative, the switching arms (S1, S2, S3) being interconnected at a centre tap (M) to which a first and a second DC supply bus capacitor (C1, C2) at the output of the rectifier stage are connected, the DC-to-DC converter stage comprising a first and a second LLC resonant converter connected at input respectively to the first and to the second DC supply bus capacitors by a first and a second DC supply bus and, at output, to the battery , the method being of the type in which the current at the input of the charging device is regulated by way of the three-phase Vienna rectifier , each switching arm being driven using pulse width modulation control signals the switching duty cycle of which is determined on the basis of the regulation of the current at input, the method being characterized in that the charging device is supplied with power in single-phase mode and the voltage (V_DC_1, V_DC2) of the first and second DC supply bus capacitors (C1, C2) is regulated independently by way of the first and second LLC resonant converters so as to ensure a fixed regulated voltage on each of the DC supply buses.
An operating machine (1; 29; 48) to process smoking articles and comprising at least one pneumatic component having a plurality of holes (15; 18; 23; 42; 46; 57; 58), which are obtained through an outer surface and can be connected to a pneumatic system, and at least one tubular duct (16; 22; 28; 40; 47), which ends in the holes (15; 18; 23; 42; 46; 57; 58); wherein the pneumatic component is one single monolithic piece, consists of one single indivisible body manufactured as a whole seamlessly and is manufactured by means of additive manufacturing; wherein the tubular duct (16; 22; 28; 40; 47) has a non-straight geometry, which optimizes fluid-dynamic efficiency; and wherein the pneumatic component is a sucking holding head , which is designed to hold, through suction, a wrapping sheet, in particular a collar, or a sucking holding head (4; 8), which is provided with at least one sucking seat (5; 9) designed to hold a smoking article. wherein the tubular duct (16; 22; 28; 40; 47) has a non-straight geometry, which optimizes fluid-dynamic efficiency; and wherein the pneumatic component is a sucking holding head , which is designed to hold, through suction, a wrapping sheet, in particular a collar, or a sucking holding head (4; 8), which is provided with at least one sucking seat (5; 9) designed to hold a smoking article.
A method of forming an emulsion, comprising: driving a first phase and an immiscible second phase through a droplet generator and forward along a flow path connecting the droplet generator to a container, such that an emulsion of first phase droplets disposed in the second phase is collected in the container, the droplets being buoyant in the second phase such that a substantially droplet-free volume of the second phase forms in the collected emulsion under the droplets; and decreasing a volume fraction of the second phase in the collected emulsion by selectively driving the substantially droplet-free volume of the second phase from a bottom region of the container in reverse along the flow path. driving a first phase and an immiscible second phase through a droplet generator and forward along a flow path connecting the droplet generator to a container, such that an emulsion of first phase droplets disposed in the second phase is collected in the container, the droplets being buoyant in the second phase such that a substantially droplet-free volume of the second phase forms in the collected emulsion under the droplets; and decreasing a volume fraction of the second phase in the collected emulsion by selectively driving the substantially droplet-free volume of the second phase from a bottom region of the container in reverse along the flow path.
A data transmission method, applied to an offload card , wherein the offload card comprises a virtual switch and a processor , the method is performed by the virtual switch , and the method comprises: receiving, by the virtual switch , a management request sent by a management node , wherein the management request comprises a destination media access control, MAC, address, and the destination MAC address is a MAC address of a server ; determining, by the virtual switch , whether the management request is to be processed by the offload card ; characterized in that when the virtual switch determines that the management request is to be processed by the offload card , updating, by the virtual switch , the management request, and obtaining an updated management request, wherein the destination MAC address in the updated management request is a MAC address of the offload card ; and sending, by the virtual switch , the updated management request to the processor . receiving, by the virtual switch , a management request sent by a management node , wherein the management request comprises a destination media access control, MAC, address, and the destination MAC address is a MAC address of a server ; determining, by the virtual switch , whether the management request is to be processed by the offload card ; when the virtual switch determines that the management request is to be processed by the offload card , updating, by the virtual switch , the management request, and obtaining an updated management request, wherein the destination MAC address in the updated management request is a MAC address of the offload card ; and sending, by the virtual switch , the updated management request to the processor .
A supramolecular aggregate consisting of the maleimido functionalized core of formula (PTW2) in which the maleimido fragments have independently to each other reacted, via a thiol-Michael addition reaction, with a a thiol group of an active substance A, and have thereby been linked to an active substance A, said active substance being an opioid peptide or neuropeptide S (NPS) derived with a thiol group or having a thiol group.
A method performed by a user equipment, UE, in a wireless communication system, the method comprising: storing information related to single-network slice selection assistance information, S-NSSAI, of a first public land mobile network, PLMN, wherein the information related to the S-NSSAI of the first PLMN is associated with an established protocol data unit, PDU, session in the first PLMN, and wherein the information related to the S-NSSAI of the first PLMN includes a first S-NSSAI used in the first PLMN and a second S-NSSAI of the Home PLMN, HPLMN; transmitting , to an access and mobility management function, AMF entity, a registration request message for moving to a second PLMN from the first PLMN; receiving , from the AMF entity, a registration accept message including allowed network slice selection assistance information, NSSAI, wherein the allowed NSSAI includes a third S-NSSAI that is a S-NSSAI used in the second PLMN and a fourth S-NSSAI of the HPLMN that is mapped to the third S-NSSAI; identifying whether the second S-NSSAI of the HPLMN associated with the PDU session matches to the fourth S-NSSAI of the HPLMN; and updating the first S-NSSAI associated with the PDU session to the third S-NSSAI in case that the second S-NSSAI matches to the fourth S-NSSAI. storing information related to single-network slice selection assistance information, S-NSSAI, of a first public land mobile network, PLMN, wherein the information related to the S-NSSAI of the first PLMN is associated with an established protocol data unit, PDU, session in the first PLMN, and wherein the information related to the S-NSSAI of the first PLMN includes a first S-NSSAI used in the first PLMN and a second S-NSSAI of the Home PLMN, HPLMN; transmitting , to an access and mobility management function, AMF entity, a registration request message for moving to a second PLMN from the first PLMN; receiving , from the AMF entity, a registration accept message including allowed network slice selection assistance information, NSSAI, wherein the allowed NSSAI includes a third S-NSSAI that is a S-NSSAI used in the second PLMN and a fourth S-NSSAI of the HPLMN that is mapped to the third S-NSSAI; identifying whether the second S-NSSAI of the HPLMN associated with the PDU session matches to the fourth S-NSSAI of the HPLMN; and updating the first S-NSSAI associated with the PDU session to the third S-NSSAI in case that the second S-NSSAI matches to the fourth S-NSSAI.
A scoring-assisted method for fabricating motor stator laminations from a sheet material , comprising: scoring at least part of an outline of a component on the sheet material with a high energy radiation source ; after the step of scoring, flattening said outline with a flattening device ; after the step of flattening said outline , separating said component from said sheet material . scoring at least part of an outline of a component on the sheet material with a high energy radiation source ; after the step of scoring, flattening said outline with a flattening device ; after the step of flattening said outline , separating said component from said sheet material .
Tool for processing particulate plastic particle material in the form of unexpanded particles, pre-expanded particles or fully expanded particles for producing a particulate, in particular thick-walled, foam component by the vapour-free introduction of thermal energy into the plastic particulate material, comprising a tool body comprising a tool cavity bounded by a plurality of tool body wall portions (2a - 2d), characterised by at least one energy-guiding element which is arranged or formed to extend into the tool cavity in a manner projecting from at least one tool body wall portion (2a - 2d) and which is designed to, during operation of the tool , introduce energy into a plastic particulate material which can be processed or is to be processed by means of the tool , in particular which is located in the tool cavity , and/or to discharge energy from a plastic particulate material which can be processed or is to be processed by means of the tool , in particular which is located in the tool cavity . a tool body comprising a tool cavity bounded by a plurality of tool body wall portions (2a - 2d), characterised by at least one energy-guiding element which is arranged or formed to extend into the tool cavity in a manner projecting from at least one tool body wall portion (2a - 2d) and which is designed to, during operation of the tool , introduce energy into a plastic particulate material which can be processed or is to be processed by means of the tool , in particular which is located in the tool cavity , and/or to discharge energy from a plastic particulate material which can be processed or is to be processed by means of the tool , in particular which is located in the tool cavity .