mhurhangee/patent-ind-claim-en huggingface dataset:
A method of operating a pressure control installation , in particular for vehicles , with a multi-stage compressor , wherein a pressure medium (L3) compressed several times is provided (St1.1, St2.5) by the multi-stage compressor for filling a pressure medium reservoir or pressure medium chambers (3.i ; i=1, ... 4) of the pressure control installation , wherein, to this end - a pre-compressed pressure medium (L2) is provided by a first compression stage , which pressure medium is further compressed (St1.4, St2.3, St2.4) at least via a second compression stage , and an already pre-compressed supercharging pressure medium (A) is introduced into an intermediate volume between the first compression stage and the second compression stage of the multi-stage compressor and the supercharging pression medium (A) is again compressed (St1.1) at least by the second compression stage or - an already pre-compressed supercharging pression medium (A) is introduced into an intermediate volume between the first compression stage and the second compression stage of the multi-stage compressor and the supercharging pression medium (A) is again compressed (St1.1), at least by the second compression stage , characterized in that the supercharging pressure medium (A) arrives simultaneously via a control line (26.2) to a control input (26.1) of a shutoff valve which cooperates (St1.2) with the first compression stage , so that a supercharging pressure (pA) of the supercharging pressure medium (A) predefines a control pressure (pS) of the shutoff valve , wherein one pressure limitation (pG) and/or one volumetric flow rate limitation (QG) of the pressure medium (L2) pre-compressed and routed by the first compression stage until the intermediate volume , depending on the control pressure (pS), is set (St1.3) via the shutoff valve for the automatic adaptation of the compression power of the first compression stage by the supercharging pressure medium (A) which is located in the control line (26.2), wherein at least a proportion of a pression medium (L1) to be pre-compressed and supplied to the first compression stage is reduced via the shutoff valve for the formation of the pressure limitation (pG) and/or of the volumetric flow rate limitation (QG) of the pressure medium (L2) pre-compressed and routed by the first compression stage . - a pre-compressed pressure medium (L2) is provided by a first compression stage , which pressure medium is further compressed (St1.4, St2.3, St2.4) at least via a second compression stage , and an already pre-compressed supercharging pressure medium (A) is introduced into an intermediate volume between the first compression stage and the second compression stage of the multi-stage compressor and the supercharging pression medium (A) is again compressed (St1.1) at least by the second compression stage or - an already pre-compressed supercharging pression medium (A) is introduced into an intermediate volume between the first compression stage and the second compression stage of the multi-stage compressor and the supercharging pression medium (A) is again compressed (St1.1), at least by the second compression stage ,
A method of determining a total amount of IL-17 (free IL-17 and LM modulator-bound IL-17) in a sample comprising an IL-17 and a large molecule (LM) modulator of IL-17, the method comprising: i. contacting the sample with a capture antibody to form a mixture comprising a first complex comprising the capture antibody and the IL-17 unbound to the LM modulator, and a second complex comprising the capture antibody and the IL-17 bound to the LM modulator; ii. contacting the mixture from step i) with a detection agent to thereby form a third complex comprising the capture antibody, the IL-17 unbound to the LM modulator and the detection agent, and a fourth complex comprising the capture antibody, the IL-17 bound to the LM modulator and the detection agent; and iii. determining the amount of total IL-17 by measuring the amount of the detection agent in the third and fourth complexes, wherein the capture antibody is anti-IL-17 antibody AF-317 and the detection agent is mAb4538 and the large molecule (LM) modulator is selected from the group consisting of secukinumab, mAb7024, and mAb732 and the capture antibody is capable of forming a complex comprising the capture antibody and the IL-17 bound to any of secukinumab, mAb7024, and mAb732. i. contacting the sample with a capture antibody to form a mixture comprising a first complex comprising the capture antibody and the IL-17 unbound to the LM modulator, and a second complex comprising the capture antibody and the IL-17 bound to the LM modulator; ii. contacting the mixture from step i) with a detection agent to thereby form a third complex comprising the capture antibody, the IL-17 unbound to the LM modulator and the detection agent, and a fourth complex comprising the capture antibody, the IL-17 bound to the LM modulator and the detection agent; and iii. determining the amount of total IL-17 by measuring the amount of the detection agent in the third and fourth complexes,
A packet processing method, comprising: receiving (S401), by a current network node, a first packet; determining (S402), by the current network node, a flow identification corresponding to the first packet, wherein the first packet does not comprise the flow identification, a feature of the first packet corresponds to the flow identification, and the feature of the first packet is located in a header of the first packet; obtaining (S403), by the current network node based on the first packet and the flow identification, a second packet, wherein the second packet comprises a field comprising the flow identification and an inband operations, administration and maintenance, IOAM, header, and in the second packet, the field comprising the flow identification is located in a hop-by-hop options header before the IOAM header when the second packet is an internet protocol version 6 IPv6 packet; and sending (S404), by the current network node, the second packet to a next network node. receiving (S401), by a current network node, a first packet; determining (S402), by the current network node, a flow identification corresponding to the first packet, wherein the first packet does not comprise the flow identification, a feature of the first packet corresponds to the flow identification, and the feature of the first packet is located in a header of the first packet; obtaining (S403), by the current network node based on the first packet and the flow identification, a second packet, wherein the second packet comprises a field comprising the flow identification and an inband operations, administration and maintenance, IOAM, header, and in the second packet, the field comprising the flow identification is located in a hop-by-hop options header before the IOAM header when the second packet is an internet protocol version 6 IPv6 packet; and sending (S404), by the current network node, the second packet to a next network node.
A process of preparing transiently transfected recombinant cells which transiently overexpress one or more genes encoding a drug transporter protein, wherein the drug transporter protein is MATE2K/Mate2K, said process comprising transiently transfecting cells by electroporation with one or more genes encoding MATE2K/Mate2K, and cryopreserving the transiently transfected recombinant cells within 48 hours of transfection.
A mobile terminal comprising: a touch screen display unit ; a camera configured to capture an image; and a controller configured to: enable an AoC (always on camera) mode in which the camera is turned on and an AoC mode shot button for taking a shot of an image in the AoC mode is displayed on the display unit , characterized in that the controller is further configured to: in response to maintaining of a touch input to the AoC mode shot button, display a preview image of an image to be captured by the camera on a prescribed region of the display unit , and in response to releasing the touch input from the AoC mode shot button, control the camera to capture an image in the AoC mode. a touch screen display unit ; a camera configured to capture an image; and a controller configured to: enable an AoC (always on camera) mode in which the camera is turned on and an AoC mode shot button for taking a shot of an image in the AoC mode is displayed on the display unit , characterized in that the controller is further configured to: in response to maintaining of a touch input to the AoC mode shot button, display a preview image of an image to be captured by the camera on a prescribed region of the display unit , and in response to releasing the touch input from the AoC mode shot button, control the camera to capture an image in the AoC mode. enable an AoC (always on camera) mode in which the camera is turned on and an AoC mode shot button for taking a shot of an image in the AoC mode is displayed on the display unit , characterized in that the controller is further configured to: in response to maintaining of a touch input to the AoC mode shot button, display a preview image of an image to be captured by the camera on a prescribed region of the display unit , and in response to releasing the touch input from the AoC mode shot button, control the camera to capture an image in the AoC mode. in response to maintaining of a touch input to the AoC mode shot button, display a preview image of an image to be captured by the camera on a prescribed region of the display unit , and in response to releasing the touch input from the AoC mode shot button, control the camera to capture an image in the AoC mode.
A steering operation apparatus configured to turn one of a plurality of tire-wheel assemblies of a vehicle independently of the other tire-wheel assemblies, the steering operation apparatus comprising: an electric motor serving as a drive source; an action conversion mechanism configured to convert an action of the electric motor into a turning action of the tire-wheel assembly; and a controller configured to control a supply current to the electric motor to turn the tire-wheel assembly based on an action position of the electric motor, wherein the controller is configured to execute, as a reference setting process for setting a reference action position being a reference of the action position of the electric motor: a first reference setting process based on a steered position of the tire-wheel assembly that is acquired based on image data on the tire-wheel assembly imaged by a camera; and a second reference setting process based on a supply current to the electric motor when the tire-wheel assembly is kept at a specific steered position or an arbitrary steered position while the vehicle is traveling. an electric motor serving as a drive source; an action conversion mechanism configured to convert an action of the electric motor into a turning action of the tire-wheel assembly; and a controller configured to control a supply current to the electric motor to turn the tire-wheel assembly based on an action position of the electric motor, wherein the controller is configured to execute, as a reference setting process for setting a reference action position being a reference of the action position of the electric motor: a first reference setting process based on a steered position of the tire-wheel assembly that is acquired based on image data on the tire-wheel assembly imaged by a camera; and a second reference setting process based on a supply current to the electric motor when the tire-wheel assembly is kept at a specific steered position or an arbitrary steered position while the vehicle is traveling. a first reference setting process based on a steered position of the tire-wheel assembly that is acquired based on image data on the tire-wheel assembly imaged by a camera; and a second reference setting process based on a supply current to the electric motor when the tire-wheel assembly is kept at a specific steered position or an arbitrary steered position while the vehicle is traveling.
Motor vehicle body structure comprising: - a rear load floor ; - a rear seat cross-member , located at the front of the rear load floor ; the rear seat cross-member being at a distance from the rear load floor ; and the structure further comprising an arm extending longitudinally and connecting said floor to said cross-member , characterized in that the rear seat cross-member is at a height lower than that of a front edge of the rear load floor , the arm having a front end inclined downwards and forwards, fixed to said cross-member , so as to compensate for the difference in height. - a rear load floor ; - a rear seat cross-member , located at the front of the rear load floor ;
A method of controlling device-to-device, D2D, communication, the method comprising: a wireless communication device (10; 700; 900; 1100; 1200) obtaining configuration information defining multiple geographical areas; and via one or more multi-hop D2D paths each formed by one or more intermediate wireless communication devices forwarding the D2D transmission from one D2D path segment to a next D2D path segment, the wireless communication device (10; 700; 900; 1100; 1200) sending an outgoing D2D transmission comprising an area identifier to identify one of the geographical areas as target geographical area of the outgoing D2D transmission and to address the outgoing D2D transmission to one or more wireless communication devices in the identified target geographical area of the outgoing D2D transmission. a wireless communication device (10; 700; 900; 1100; 1200) obtaining configuration information defining multiple geographical areas; and via one or more multi-hop D2D paths each formed by one or more intermediate wireless communication devices forwarding the D2D transmission from one D2D path segment to a next D2D path segment, the wireless communication device (10; 700; 900; 1100; 1200) sending an outgoing D2D transmission comprising an area identifier to identify one of the geographical areas as target geographical area of the outgoing D2D transmission and to address the outgoing D2D transmission to one or more wireless communication devices in the identified target geographical area of the outgoing D2D transmission.
A chair comprising a support shell having a seat portion and a back portion , a transom , and a recline mechanism, the recline mechanism comprising: a resilient front support member having a first end operatively attached to the transom and a second end operatively attached to a front part of the seat portion ; and a back support arm having a lower end operatively rigidly attached to the transom , an upper end operatively rigidly attached to the back portion , and a flex region having a rearward flexibility that is greater than the rearward flexibility of the rest of the back support arm ; wherein the back portion is reclinable relative to the seat portion and a rear part of the seat portion is configured to lift as the shell back portion reclines. a resilient front support member having a first end operatively attached to the transom and a second end operatively attached to a front part of the seat portion ; and a back support arm having a lower end operatively rigidly attached to the transom , an upper end operatively rigidly attached to the back portion , and a flex region having a rearward flexibility that is greater than the rearward flexibility of the rest of the back support arm ; wherein the back portion is reclinable relative to the seat portion and a rear part of the seat portion is configured to lift as the shell back portion reclines.
An apparatus comprising: a communication module configured to support a short range wireless communication; a first processor configured to control the communication module in an active state; and a second processor configured to periodically wake up for cellular communication, wherein the second processor is configured to: receive , from the first processor, a signal associated with transition of the first processor from the active state to an inactive state while the first processor controls the communication module, receive , based at least in part on the receiving of the signal, information on one or more access points, APs, related to the short range wireless communication, and perform a scan or connection of an AP, through the communication module based at least in part on the information on the APs while the first processor is in the inactive state. a communication module configured to support a short range wireless communication; a first processor configured to control the communication module in an active state; and a second processor configured to periodically wake up for cellular communication, wherein the second processor is configured to: receive , from the first processor, a signal associated with transition of the first processor from the active state to an inactive state while the first processor controls the communication module, receive , based at least in part on the receiving of the signal, information on one or more access points, APs, related to the short range wireless communication, and perform a scan or connection of an AP, through the communication module based at least in part on the information on the APs while the first processor is in the inactive state. receive , from the first processor, a signal associated with transition of the first processor from the active state to an inactive state while the first processor controls the communication module, receive , based at least in part on the receiving of the signal, information on one or more access points, APs, related to the short range wireless communication, and perform a scan or connection of an AP, through the communication module based at least in part on the information on the APs while the first processor is in the inactive state.
System comprising a mapping robot the mapping robot comprising: - a frame , - at least two motorized wheels , - for each motorized wheel , a motor which drives said wheel in rotation, - a location system determining the position of the robot on a synthetic ground , - a friction element which has teeth which rub on the synthetic ground , and - a control unit arranged to collect position information delivered by the location system , the system being characterized in that the control unit is also arranged to collect information on electrical consumption of each motor , the system comprising also a display system which comprises a screen and is linked with the control unit , in addition, the control unit is arranged to associate to each position information, the fact that the electrical consumption information corresponds to an electrical consumption which is above or below a threshold, in addition, the electrical consumption information is representative of a density of balls on said synthetic ground , and in addition, the display system is arranged to display on the screen , the electrical consumption information as a function of the position information. the mapping robot comprising: - a frame , - at least two motorized wheels , - for each motorized wheel , a motor which drives said wheel in rotation, - a location system determining the position of the robot on a synthetic ground , - a friction element which has teeth which rub on the synthetic ground , and - a control unit arranged to collect position information delivered by the location system , - a frame , - at least two motorized wheels , - for each motorized wheel , a motor which drives said wheel in rotation, - a location system determining the position of the robot on a synthetic ground , - a friction element which has teeth which rub on the synthetic ground , and - a control unit arranged to collect position information delivered by the location system , the system being characterized in that the control unit is also arranged to collect information on electrical consumption of each motor , the system comprising also a display system which comprises a screen and is linked with the control unit , in addition, the control unit is arranged to associate to each position information, the fact that the electrical consumption information corresponds to an electrical consumption which is above or below a threshold, in addition, the electrical consumption information is representative of a density of balls on said synthetic ground , and in addition, the display system is arranged to display on the screen , the electrical consumption information as a function of the position information.
A method for determining the abundance of a target nucleic acid in a single cell, the method comprising: contacting a fixed and permeabilized cell with at least one pair of SNAIL oligonucleotides under conditions permissive for specific hybridization, wherein the pair of oligonucleotides comprises a Splint Primer Oligonucleotide (SPO) and a closed circle Padlock Oligonucleotide (PO), wherein each of SPO and PO comprise a first complementarity region (CR1 and CR1', respectively) complementary to directly adjacent sequences on the target nucleic acid; and each of SPO and PO further comprise a second complementarity region (CR2 and CR2') located adjacent to CR1 or CR1' respectively; wherein the CR2' on the PO is a split region such that the 5' and the 3' ends of PO hybridize to CR2 of the SPO such that after hybridization the 5' and the 3' ends of PO are positioned in a butt head-to-end fashion where the 5' and the 3' ends of PO are positioned directly adjacent to one another; washing the cell free of unbound oligonucleotides; performing rolling circle amplification using the PO as a template and SPO as a primer for a polymerase; contacting the cell with a detection probe under conditions permissive for specific hybridization; and detecting the level of bound detection probes to determine the abundance of the target nucleic acid; contacting a fixed and permeabilized cell with at least one pair of SNAIL oligonucleotides under conditions permissive for specific hybridization, wherein the pair of oligonucleotides comprises a Splint Primer Oligonucleotide (SPO) and a closed circle Padlock Oligonucleotide (PO), wherein each of SPO and PO comprise a first complementarity region (CR1 and CR1', respectively) complementary to directly adjacent sequences on the target nucleic acid; and each of SPO and PO further comprise a second complementarity region (CR2 and CR2') located adjacent to CR1 or CR1' respectively; wherein the CR2' on the PO is a split region such that the 5' and the 3' ends of PO hybridize to CR2 of the SPO such that after hybridization the 5' and the 3' ends of PO are positioned in a butt head-to-end fashion where the 5' and the 3' ends of PO are positioned directly adjacent to one another; washing the cell free of unbound oligonucleotides; performing rolling circle amplification using the PO as a template and SPO as a primer for a polymerase; contacting the cell with a detection probe under conditions permissive for specific hybridization; and detecting the level of bound detection probes to determine the abundance of the target nucleic acid;