mhurhangee/patent-ind-claim-en huggingface dataset:
A method of identifying a subject having a bacterial infection comprising detecting in a subject derived RNA sample the modulation in gene expression levels of a gene signature comprising two or more genes, but no more than 10 genes, selected from the group consisting of: IFI44L, FAM89A, IFI27, IFIT1, RSAD2, IFIT3, OTOF, IFIT2, EPSTI1, SERPING1, OAS1, IFI6, HLA-DRB6, HBZ, HS.386275, EIF2AK2, IFIT1L, FCER1A, C21ORF7, GYPE, GYPB, HBM, EIF1AY, LOC649143, HBD, FBX07, KCNMA1, MERTK, EBI3, UPB1, EMR1, PTPN20, TMEM119, SLPI, S100P and PI3.
A method performed by a device for performing a network exposure function, NEF , in a fifth-generation, 5G, communication system, the method comprising: receiving , from a vehicle-to-everything, V2X, application server , a request message including request information, the request information comprising service description information, identification information for a user equipment, UE , an application function, AF, transaction identifier, and service parameters for provisioning to the UE to support a V2X service; and storing data in a unified data repository, UDR , on the basis of the request information, wherein the service parameters included in the request information received from the V2X application server comprises: in case the UE is in coverage, information on a public land mobile network, PLMN, in which the UE is authorized to perform the V2X communications and radio access technology, RAT, over which the UE is authorized to perform the V2X communications in the PLMN, and in case the UE is out of coverage, information for indicating whether the UE is authorized to perform V2X communications. receiving , from a vehicle-to-everything, V2X, application server , a request message including request information, the request information comprising service description information, identification information for a user equipment, UE , an application function, AF, transaction identifier, and service parameters for provisioning to the UE to support a V2X service; and storing data in a unified data repository, UDR , on the basis of the request information, wherein the service parameters included in the request information received from the V2X application server comprises: in case the UE is in coverage, information on a public land mobile network, PLMN, in which the UE is authorized to perform the V2X communications and radio access technology, RAT, over which the UE is authorized to perform the V2X communications in the PLMN, and in case the UE is out of coverage, information for indicating whether the UE is authorized to perform V2X communications. in case the UE is in coverage, information on a public land mobile network, PLMN, in which the UE is authorized to perform the V2X communications and radio access technology, RAT, over which the UE is authorized to perform the V2X communications in the PLMN, and in case the UE is out of coverage, information for indicating whether the UE is authorized to perform V2X communications.
A pneumatic tire comprising a tread , the tread having, in a surface thereof: lug grooves on one side extending from one axial edge of the tire towards an axial center of the tire in such a manner as to intersect with a circumferential direction thereof and lug grooves on the other side extending in a symmetrically opposite direction from the axial center of the tire towards the other axial edge of the tire ; and at least one circumferential groove extending circumferentially around the tire and disposed in a central region, wherein the central region is a region enclosed by two straight parallel lines each passing through the center between the straight line (CL) passing through the contact width center and the respective axially outermost point of the contact edge of the contact patch of the tire , formed between the tire and a flat and smooth road surface when the tire is placed on the flat and smooth road surface, at an internal pressure of 200 kPa and a load of 5500 N, with shoulder regions being regions axially outside of the straight parallel lines, characterised in that the axial length L of the central region, measured in mm, and the total S, measured in mm 2 , of the groove cross-sectional areas of the circumferential grooves disposed in the central region satisfy a relationship of 1 mm ≦ (S/L) ≦ 3 mm. lug grooves on one side extending from one axial edge of the tire towards an axial center of the tire in such a manner as to intersect with a circumferential direction thereof and lug grooves on the other side extending in a symmetrically opposite direction from the axial center of the tire towards the other axial edge of the tire ; and at least one circumferential groove extending circumferentially around the tire and disposed in a central region, wherein the central region is a region enclosed by two straight parallel lines each passing through the center between the straight line (CL) passing through the contact width center and the respective axially outermost point of the contact edge of the contact patch of the tire , formed between the tire and a flat and smooth road surface when the tire is placed on the flat and smooth road surface, at an internal pressure of 200 kPa and a load of 5500 N, with shoulder regions being regions axially outside of the straight parallel lines, characterised in that the axial length L of the central region, measured in mm, and the total S, measured in mm 2 , of the groove cross-sectional areas of the circumferential grooves disposed in the central region satisfy a relationship of 1 mm ≦ (S/L) ≦ 3 mm.
A universal leak detection method for detecting both small and large leaks, the method comprising the steps of: injecting smoke and a detectable gas into a fluid system to pressurize the fluid system, the smoke and detectable gas both being capable of passing through a large leak in the fluid system, and the smoke being inhibited from passing through a small leak in the fluid system and the detectable gas being capable of passing through a small leak in the fluid system; characterized in that the method further comprises detecting a leak by detecting the smoke and the detectable gas, wherein detection of smoke is indicative of the fluid system having a large leak and detection of detectable gas without smoke is indicative of the fluid system having a small leak; wherein the gas detecting step includes the use of a gas detector for detection of the detectable gas. injecting smoke and a detectable gas into a fluid system to pressurize the fluid system, the smoke and detectable gas both being capable of passing through a large leak in the fluid system, and the smoke being inhibited from passing through a small leak in the fluid system and the detectable gas being capable of passing through a small leak in the fluid system; characterized in that the method further comprises detecting a leak by detecting the smoke and the detectable gas, wherein detection of smoke is indicative of the fluid system having a large leak and detection of detectable gas without smoke is indicative of the fluid system having a small leak; wherein the gas detecting step includes the use of a gas detector for detection of the detectable gas.
A method for transmission of control information performed by a base station, wherein the method comprises: • determining a first parameter, wherein the first parameter comprises a repetition level of the transmission of the control information, and the repetition level corresponds to a quantity of subframes occupied for repeated transmission of the control information; • performing the transmission of the control information according to the first parameter, wherein the control information comprises information indicating the first parameter. • determining a first parameter, wherein the first parameter comprises a repetition level of the transmission of the control information, and the repetition level corresponds to a quantity of subframes occupied for repeated transmission of the control information; • performing the transmission of the control information according to the first parameter, wherein the control information comprises information indicating the first parameter.
Use of an assembly, ▪ having a cut-off tool , ▪ and having a cut-off wheel that is held exchangeably on the cut-off tool ▪ and having a depth stop for a cut-off tool that incorporates a rotarily driven, exchangeable cut-off wheel , - where the depth stop has a hole at its centre - and a stop ring that extends all the way around the hole at a distance from the hole - and is provided with a distance piece that extends radially outwards from the hole to the stop ring , where the diameter of the stop ring is dimensioned smaller than the diameter of the cut-off wheel , characterised in that the hole at the centre is designed as a mount for the drive axle of the cut-off tool and in that the assembly is used to make cuts into the wall of a mineral pipe body. ▪ having a cut-off tool , ▪ and having a cut-off wheel that is held exchangeably on the cut-off tool ▪ and having a depth stop for a cut-off tool that incorporates a rotarily driven, exchangeable cut-off wheel , - where the depth stop has a hole at its centre - and a stop ring that extends all the way around the hole at a distance from the hole - and is provided with a distance piece that extends radially outwards from the hole to the stop ring , where the diameter of the stop ring is dimensioned smaller than the diameter of the cut-off wheel , characterised in that the hole at the centre is designed as a mount for the drive axle of the cut-off tool and in that the assembly is used to make cuts into the wall of a mineral pipe body. - where the depth stop has a hole at its centre - and a stop ring that extends all the way around the hole at a distance from the hole - and is provided with a distance piece that extends radially outwards from the hole to the stop ring , where the diameter of the stop ring is dimensioned smaller than the diameter of the cut-off wheel , characterised in that the hole at the centre is designed as a mount for the drive axle of the cut-off tool and in that the assembly is used to make cuts into the wall of a mineral pipe body.
A register (20; 60) for a processing machine for processing plate-like elements comprising: - a gripping element (21; 22) for placing the plate-like elements in a gripper bar of a conveyor of a processing machine conveying the plate-like elements in a longitudinal direction, - an actuator module adapted to drive the gripping element (21; 22), - at least one frontal correction sensor module configured to measure the frontal position of register marks printed on a front section of the plate-like element grasped by the gripping element (21; 22), characterized in that the register (20; 60) comprises : - at least one frontal pre-correction sensor module , placed upstream of the frontal correction sensor module in the longitudinal direction, the frontal pre-correction sensor module being configured: ∘ to detect the passage of a front transversal edge of the plate-like element in at least two longitudinally spaced lateral axis of detection (P1, P2), one located in front of the other, and ∘ to provide measurements to a computation and control unit of the processing machine that is configured : ▪ to control the actuator module in order to move the gripping element (21; 22) toward the gripper bar and ▪ to activate the gripping element (21; 22) in order to grasp a plate-like element . - a gripping element (21; 22) for placing the plate-like elements in a gripper bar of a conveyor of a processing machine conveying the plate-like elements in a longitudinal direction, - an actuator module adapted to drive the gripping element (21; 22), - at least one frontal correction sensor module configured to measure the frontal position of register marks printed on a front section of the plate-like element grasped by the gripping element (21; 22), - at least one frontal pre-correction sensor module , placed upstream of the frontal correction sensor module in the longitudinal direction, the frontal pre-correction sensor module being configured: ∘ to detect the passage of a front transversal edge of the plate-like element in at least two longitudinally spaced lateral axis of detection (P1, P2), one located in front of the other, and ∘ to provide measurements to a computation and control unit of the processing machine that is configured : ▪ to control the actuator module in order to move the gripping element (21; 22) toward the gripper bar and ▪ to activate the gripping element (21; 22) in order to grasp a plate-like element . ∘ to detect the passage of a front transversal edge of the plate-like element in at least two longitudinally spaced lateral axis of detection (P1, P2), one located in front of the other, and ∘ to provide measurements to a computation and control unit of the processing machine that is configured : ▪ to control the actuator module in order to move the gripping element (21; 22) toward the gripper bar and ▪ to activate the gripping element (21; 22) in order to grasp a plate-like element . ▪ to control the actuator module in order to move the gripping element (21; 22) toward the gripper bar and ▪ to activate the gripping element (21; 22) in order to grasp a plate-like element .
A power supply circuit (400; 700; 800), comprising: a first power source supplying a first current to a load during a first period of time; a second power source supplying a second current to the load during a second period of time; a unidirectional current valve in series with the second power source , characterised by : a current detector (426; 702; 802) in series with the unidirectional current valve ; and a switch in parallel with a series combination of the current detector (426; 702; 802) and the unidirectional current valve to bypass the unidirectional current valve during the second period of time, wherein the current detector (426; 702; 802) is configured to determine whether the second period of time has commenced and whether the switch has closed. a first power source supplying a first current to a load during a first period of time; a second power source supplying a second current to the load during a second period of time; a unidirectional current valve in series with the second power source , characterised by : a current detector (426; 702; 802) in series with the unidirectional current valve ; and a switch in parallel with a series combination of the current detector (426; 702; 802) and the unidirectional current valve to bypass the unidirectional current valve during the second period of time, wherein the current detector (426; 702; 802) is configured to determine whether the second period of time has commenced and whether the switch has closed. a current detector (426; 702; 802) in series with the unidirectional current valve ; and a switch in parallel with a series combination of the current detector (426; 702; 802) and the unidirectional current valve to bypass the unidirectional current valve during the second period of time, wherein the current detector (426; 702; 802) is configured to determine whether the second period of time has commenced and whether the switch has closed.
An internal olefin sulfonate composition comprising (A) an internal olefin sulfonate having 16 carbon atoms and (B) an internal olefin sulfonate having 14 carbon atoms, wherein a content mass ratio of the component (A) to the component (B), (A/B), is from 10/90 to 70/30, and a content of the internal olefin sulfonate having 18 or more carbon atoms is 5% by mass or less, and wherein the content of the internal olefin sulfonate in which a sulfonate group is present at a C-2 position in the internal olefin sulfonate having 16 and 14 carbon atoms is 25% by mass or less. (A) an internal olefin sulfonate having 16 carbon atoms and (B) an internal olefin sulfonate having 14 carbon atoms, wherein a content mass ratio of the component (A) to the component (B), (A/B), is from 10/90 to 70/30, and a content of the internal olefin sulfonate having 18 or more carbon atoms is 5% by mass or less, and wherein the content of the internal olefin sulfonate in which a sulfonate group is present at a C-2 position in the internal olefin sulfonate having 16 and 14 carbon atoms is 25% by mass or less. wherein a content mass ratio of the component (A) to the component (B), (A/B), is from 10/90 to 70/30, and a content of the internal olefin sulfonate having 18 or more carbon atoms is 5% by mass or less, and wherein the content of the internal olefin sulfonate in which a sulfonate group is present at a C-2 position in the internal olefin sulfonate having 16 and 14 carbon atoms is 25% by mass or less.
Motor-vehicle component (1; 2) comprising a light-emitting device , comprising: - a casing ; - a closing outer lens ; - at least one light-emitting module that is placed in the casing and that emits a light beam (F1, F2) in the direction of the closing outer lens ; - at least one sensor that is fastened to the casing and that is arranged so as to send a first signal (S1) and/or to receive a second signal (S2) so as to detect and/or view objects present in the field of view of the sensor , said first and second signals (S1, S2) being formed from electromagnetic waves, the wavelength of which is longer than 780 nm and/or shorter than 380 nm; comprising an occulting part arranged so as to at least partially block electromagnetic waves having a wavelength comprised between 380 nm and 780 nm, said occulting part being separate from the light-emitting device, the sensor and said occulting part being arranged so that the first and second signals (S1, S2) pass through said occulting part , and so that the light-emitting module is offset laterally with respect to said occulting part so that the light beam (F1, F2) emitted by the light-emitting module passes to the side of said occulting part , the vehicle component (1; 2) being characterized in that the sensor is arranged inside the casing so that the closing outer lens of the light-emitting device faces the sensor and is placed between the sensor and the occulting part . - a casing ; - a closing outer lens ; - at least one light-emitting module that is placed in the casing and that emits a light beam (F1, F2) in the direction of the closing outer lens ; - at least one sensor that is fastened to the casing and that is arranged so as to send a first signal (S1) and/or to receive a second signal (S2) so as to detect and/or view objects present in the field of view of the sensor , said first and second signals (S1, S2) being formed from electromagnetic waves, the wavelength of which is longer than 780 nm and/or shorter than 380 nm;
High pressure fuel pump wherein a spring engaged around a cylindrical plunger is compressed between a spring seat arranged and retained at an extremity of the plunger and a pumping head in which the plunger is slidably guided and arranged to perform a pumping cycle, the spring seat comprising a central portion surrounded by a peripheral disc portion for receiving the spring , the central portion being provided with a central aperture allowing the plunger to pass therethrough and be positioned in a final position, characterized in that the spring seat further comprises a engagement aperture enabling through engagement of the extremity of the plunger in a preliminary engagement position distinct from the final position, said engagement aperture opening into the central aperture so that the plunger can be moved from the engagement position to the final position and wherein, the extremity of the plunger is provided with a transverse diametral through hole in which is engaged a pin protruding from both extremities of the hole , the engagement aperture enabling passage of said pin until final positioning of the plunger in the central aperture and, wherein the engagement aperture has a rectangular section forming diametrally opposed slots radially extending from the circular central aperture so that the plunger and the pin can be engaged therethrough said central and engagement apertures prior to be rotated to the final position and, wherein the spring seat is further provided with rectangular notches forming recess in the central portion of the spring seat, the notches radially extending from the circular central opening , so that the pin can position in said notches when the plunger is in final position.
Anchoring device for anchoring, on a building element to be reinforced or to be repaired by additional prestressing, at least one prestressing armature suitable for being tensioned, the anchoring device being of a single block and comprising means for fastening on said building element and means for anchoring the armature adjacent to a first side of the device directed towards a running portion of the armature, such that the means for fastening are adjacent to a second side of the device located opposite the first side, the means for anchoring comprising an orifice that makes it possible to receive at least one strand of said at least one prestressing armature located in said first side, and a housing for receiving the end of the strand in such a way that, when the strand is tensioned, the strand exerts a traction force on said first side while the means for fastening retain the second side on the element to be reinforced, the housing being open on one face of the anchoring device separate from said first side.
A lidar imaging apparatus for a motor vehicle, comprising an emitting section adapted to emit a pulsed light beam and to change the direction of the light beam in two dimensions perpendicularly to the light beam , a receiving section having a lens objective and a lidar detector , and an electronic processing unit , wherein light entering the lidar imaging apparatus through said lens objective is directed on said lidar detector , wherein said electronic processing unit is adapted to determine the time-of-flight of a laser pulse from said emitting section to said lidar detector , wherein the receiving section comprises a beam splitter arranged in the light path from said lens objective to said lidar detector , and a further photo detector , wherein said beam splitter is adapted to split off a part of the light beam from said lens objective and to direct the split-off part of said light beam to said further photo detector , characterized in that said electronic processing unit is adapted to determine a condition, where, due to a reduced detection range caused by adverse weather conditions, said lidar imaging is not fully operative, and if such condition is determined, to use images from said further photo detector at different depths to estimate a depth map.