mhurhangee/patent-ind-claim-en huggingface dataset:
A pneumatic tyre comprising: a toroidal carcass , which consists of at least one body ply that is partially folded onto itself and therefore having two lateral flaps, within each of which an edge of the body ply rests against an intermediate portion of the body ply ; two annular beads , each of which is surrounded by the body ply and has a bead core and a bead filler ; an annular tread ; a tread belt comprising at least one tread ply ; a pair of sidewalls arranged externally to the body ply between the tread and the beads ; a pair of abrasion gum strips arranged externally to the body ply , radially more to the inside of the sidewalls , and at the beads ; an innerliner which is impermeable to air and arranged within the body ply ; and a transponder which is arranged in contact with the body ply at a flap of the body ply ; the pneumatic tyre is characterized in that: the transponder is arranged between the body ply and the innerliner and therefore the transponder is laterally bordering and in direct contact with the body ply on the external side and is laterally bordering and in direct contact with the innerliner on the inner side; and each end of the transponder is arranged at a distance (D1, D2) of less than 7 mm from an edge of the body ply . a toroidal carcass , which consists of at least one body ply that is partially folded onto itself and therefore having two lateral flaps, within each of which an edge of the body ply rests against an intermediate portion of the body ply ; two annular beads , each of which is surrounded by the body ply and has a bead core and a bead filler ; an annular tread ; a tread belt comprising at least one tread ply ; a pair of sidewalls arranged externally to the body ply between the tread and the beads ; a pair of abrasion gum strips arranged externally to the body ply , radially more to the inside of the sidewalls , and at the beads ; an innerliner which is impermeable to air and arranged within the body ply ; and a transponder which is arranged in contact with the body ply at a flap of the body ply ; the pneumatic tyre is characterized in that: the transponder is arranged between the body ply and the innerliner and therefore the transponder is laterally bordering and in direct contact with the body ply on the external side and is laterally bordering and in direct contact with the innerliner on the inner side; and each end of the transponder is arranged at a distance (D1, D2) of less than 7 mm from an edge of the body ply . the transponder is arranged between the body ply and the innerliner and therefore the transponder is laterally bordering and in direct contact with the body ply on the external side and is laterally bordering and in direct contact with the innerliner on the inner side; and each end of the transponder is arranged at a distance (D1, D2) of less than 7 mm from an edge of the body ply .
A needle guide apparatus for endocavity ultrasound intervention , comprising a plastic bracket and a needle guiding passage made of metal that is provided in the plastic bracket , wherein the plastic bracket has a mounting structure that is detachably mounted to an endocavity ultrasound probe , characterized in that the needle guiding passage comprises a needle insertion channel provided by a metal head and a guiding channel provided by a metal guiding tube , the metal guiding tube is at least partially housed in the plastic bracket , and at least an inlet end of the metal head is exposed outside the plastic bracket ; the plastic bracket is injection molded integrally on the needle guiding passage, and the metal head and the plastic bracket are provided with a limiting structure that cooperates to restrict the metal head from moving along an axis of the metal guiding tube and rotating around the axis of the metal guiding tube .
Barrique barrel comprising a barrel bottom and a barrel wall formed from a plurality of barrel staves which are assembled in a liquid-tight manner, characterized in that a plurality of substantially straight barrel staves which are toasted on an inner face are detachably connected to one another to form closed, at least substantially rectangular layer rings , which in turn are detachably connected to one another in a liquid-tight manner and thereby form the barrel wall .
Reactor-heat exchanger module (M) with at least two fluid circuits, comprising a stacking which extends along a longitudinal axis (X) and comprising the following elements: - one or more elements each forming a sheet of one of the two fluid circuits, called heat-transfer circuit, inside which a heat-transfer fluid is intended to circulate, each element of the heat-transfer circuit comprising channels delimited at least partly by grooves produced in at least one plate ; - one or more elements each forming a sheet of the other of the two fluid circuits, called reagent circuit, inside which at least two reagents are intended to circulate, each element of the reagent circuit comprising channels delimited at least partly by grooves produced in at least one plate ; characterized in that the reagent circuit channels each have a flow section that increases over at least part of their length and in that two adjacent reagent circuit channels (21.1, 21.2) are produced head-to-tail such that, in the course of a channel (21.1) in a direction along the longitudinal axis (X), its geometrical section increases whereas, in the course of the adjacent channel (21.2) in the same direction along the longitudinal axis (X) its geometrical section decreases. - one or more elements each forming a sheet of one of the two fluid circuits, called heat-transfer circuit, inside which a heat-transfer fluid is intended to circulate, each element of the heat-transfer circuit comprising channels delimited at least partly by grooves produced in at least one plate ; - one or more elements each forming a sheet of the other of the two fluid circuits, called reagent circuit, inside which at least two reagents are intended to circulate, each element of the reagent circuit comprising channels delimited at least partly by grooves produced in at least one plate ;
A method of control for a vehicle exhaust system, said vehicle exhaust system including a first SCR unit , and a second SCR unit located downstream of said first SCR unit, and including a first urea doser adapted to inject urea reductant upstream of said first SCR unit , and a second urea doser located upstream of said second SCR unit and adapted to inject urea upstream of said second catalytic unit , said method comprising the steps of : providing a model or MAP of said second SCR unit, adapted to provide a demand signal for said second doser; said model or MAP including one or more stored parameters indicative of characteristics of the second SCR unit and/or the doser therefor; said method further including subsequent to operation of the first doser ; the steps of a) switching off the operation of the first doser ; b) operating said second doser for a flushing period of time; c) after expiry of said flushing period, running the second SCR unit in closed loop control, d) updating said model or MAP during said closed loop control, characterized in that flushing period is sufficient such that the first SCR unit is empty of NH3/urea by the steps of: i) providing a value for NH3 storage on said first SCR unit ii) determining the flow rate of potentially converted NH3 equivalent NOx flowing into the first SCR unit ; iii) integrating the product of the flow rate from ii) multiplied by the NOx conversion efficiency for said first SCR unit over time iv) comparing the value of step iii) and step i) determining the flushing time is finished when the value determines form step iii) substantially reaches said NH3 storage value of step i) a) switching off the operation of the first doser ; b) operating said second doser for a flushing period of time; c) after expiry of said flushing period, running the second SCR unit in closed loop control, d) updating said model or MAP during said closed loop control, characterized in that flushing period is sufficient such that the first SCR unit is empty of NH3/urea by the steps of: i) providing a value for NH3 storage on said first SCR unit ii) determining the flow rate of potentially converted NH3 equivalent NOx flowing into the first SCR unit ; iii) integrating the product of the flow rate from ii) multiplied by the NOx conversion efficiency for said first SCR unit over time iv) comparing the value of step iii) and step i) determining the flushing time is finished when the value determines form step iii) substantially reaches said NH3 storage value of step i) i) providing a value for NH3 storage on said first SCR unit ii) determining the flow rate of potentially converted NH3 equivalent NOx flowing into the first SCR unit ; iii) integrating the product of the flow rate from ii) multiplied by the NOx conversion efficiency for said first SCR unit over time iv) comparing the value of step iii) and step i) determining the flushing time is finished when the value determines form step iii) substantially reaches said NH3 storage value of step i)
Apparatus for thermally processing food products in sealed packages, in particular flexible packages, comprising: - one or more heating and/or cooling chambers ; - an endless conveyor guided through the chambers ; - a plurality of product carriers connected interspaced to the conveyor , in which each carrier comprises at least a first row of insertion spaces for packages to be placed in, which insertion spaces each have an insertion opening and which first row of insertion spaces is at least partly delimited by a first side wall and an opposite second side wall ; and - an inlet station comprising one or more first operating members operable to move into and out of the insertion spaces for moving packages in an insertion direction (X) into the insertion spaces ; in which the conveyor is designed for transporting the carriers with packages placed in the insertion spaces thereof through the one or more heating and/or cooling chambers , characterized in that, the first side wall comprises at least one primary slit for each insertion space , which primary slit extends substantially in said insertion direction (X), and which primary slit opens out towards the insertion opening of said respective insertion space , wherein the first operating members comprise load bearing organs operable for picking up and carrying packages , which load bearing organs extend substantially in a transverse direction relative to said side walls , and which load bearing organs are movable in said insertion direction (X) while projecting through the primary slits during placing of packages into the first row of insertion spaces . - one or more heating and/or cooling chambers ; - an endless conveyor guided through the chambers ; - a plurality of product carriers connected interspaced to the conveyor , in which each carrier comprises at least a first row of insertion spaces for packages to be placed in, which insertion spaces each have an insertion opening and which first row of insertion spaces is at least partly delimited by a first side wall and an opposite second side wall ; and - an inlet station comprising one or more first operating members operable to move into and out of the insertion spaces for moving packages in an insertion direction (X) into the insertion spaces ; in which the conveyor is designed for transporting the carriers with packages placed in the insertion spaces thereof through the one or more heating and/or cooling chambers , characterized in that, the first side wall comprises at least one primary slit for each insertion space , which primary slit extends substantially in said insertion direction (X), and which primary slit opens out towards the insertion opening of said respective insertion space , wherein the first operating members comprise load bearing organs operable for picking up and carrying packages , which load bearing organs extend substantially in a transverse direction relative to said side walls , and which load bearing organs are movable in said insertion direction (X) while projecting through the primary slits during placing of packages into the first row of insertion spaces .
A sepiapterin reductase inhibitor (SPRi) for use in a method of treatment of chronic pain or pain hypersensitivity, and inflammation of a subject, wherein the method monitors administration of the SPRi to the subject, the method comprising: administering a dose of the sepiapterin reductase inhibitor (SPRi); measuring the level of sepiapterin; and a) administering a further and/or increased dose of the SPRi if the level of sepiapterin is at or lower than a reference range and b) ceasing or administering a decreased dose of the SPRi if the level of sepiapterin is greater than the reference range. administering a dose of the sepiapterin reductase inhibitor (SPRi); measuring the level of sepiapterin; and a) administering a further and/or increased dose of the SPRi if the level of sepiapterin is at or lower than a reference range and b) ceasing or administering a decreased dose of the SPRi if the level of sepiapterin is greater than the reference range. a) administering a further and/or increased dose of the SPRi if the level of sepiapterin is at or lower than a reference range and b) ceasing or administering a decreased dose of the SPRi if the level of sepiapterin is greater than the reference range.
A non-chargeable or weakly chargeable layer structure comprising, - a first electrically non-conductive polymer layer, - a second electrically non-conductive polymer layer placed at a distance from the first polymer layer, and - between the first and second layer a third polymer layer, which is electrically conductive, and characterized in that - the third layer contains an ionically conductive polymer comprising a polymer containing polyether blocks, whereby the concentration of the polyether blocks in the third layer is at least 6 mass %, and - the layer containing the ionically conductive polymer has a thickness of at least 1 micrometer, but at most 20 % of the total thickness of the film. - a first electrically non-conductive polymer layer, - a second electrically non-conductive polymer layer placed at a distance from the first polymer layer, and - between the first and second layer a third polymer layer, which is electrically conductive, and - the third layer contains an ionically conductive polymer comprising a polymer containing polyether blocks, whereby the concentration of the polyether blocks in the third layer is at least 6 mass %, and - the layer containing the ionically conductive polymer has a thickness of at least 1 micrometer, but at most 20 % of the total thickness of the film.
A mixing device for a dental powder jet device comprising a container (2; 52) for receiving a powder, an inlet (4; 54) for a transport fluid, and an outlet (6; 56) for a powder transport fluid mixture, the outlet (6; 56) having a plurality of outlet nozzles (12; 62) and all the outlet nozzles (12; 62) being arranged along a straight line such that the inlet directions (x) thereof are arranged parallel to each another, the inlet (4; 54) having at least a first (8; 58) and at least a second (10; 60) inlet nozzle, the inlet (4; 54) being formed as a tubular body projecting into the container, on which tubular body the first and second inlet nozzles (8; 58) are offsetly arranged in the flow direction of the transport fluid, or the inlet (4; 54) being formed by a first tubular body projecting into the container (2; 52) and having the first inlet nozzle (8; 58), and by a second tubular body projecting into the container and having the second inlet nozzle (10; 60), the outlet being designed as another tubular body projecting into the container, the outlet direction (w) of the second inlet nozzle (10; 60) being offset with respect to the outlet direction (v) and wherein the outlet direction (v) of the first inlet nozzle (8; 58) intersects the inlet directions (x) of the outlet nozzles (12; 62) to ensure that the outlet nozzles are kept free of powder.
A method for suspending birds having body, neck, legs and possibly head and feet from an overhead conveyor, comprising the following sequence of steps: A) each bird is arranged in a holder with its legs and/or feet projecting from a first opening therein and its neck at a neck end of the holder, B) orientation of the legs and/or feet is determined, C) the bird is rotated about an axis of rotation extending between a plane defined by the first opening of the holder and a plane defined by the neck end of holder until a predetermined orientation of the legs and/or feet is reached, and D) the legs and/or feet of the bird are arranged in a shackle on the conveyor. A) each bird is arranged in a holder with its legs and/or feet projecting from a first opening therein and its neck at a neck end of the holder, B) orientation of the legs and/or feet is determined, C) the bird is rotated about an axis of rotation extending between a plane defined by the first opening of the holder and a plane defined by the neck end of holder until a predetermined orientation of the legs and/or feet is reached, and D) the legs and/or feet of the bird are arranged in a shackle on the conveyor.
A method of reducing fouling of equipment in a quench water recycling loop of a steam cracker quench system by separating tar from water in the quench water recycling loop, the method comprising: receiving furnace effluent in a quench tower; quenching the furnace effluent in the quench tower with quench water to produce a bottom stream comprising pyrolysis gasoline, quench tower effluent water, and a gas stream; settling the bottom stream comprising pyrolysis gasoline in at least two quench water settlers in parallel, each of the quench water settlers producing a settler hydrocarbon stream and a settler bottom quench water stream; and feeding the quench tower effluent water to a water stripper for separation into a stripper hydrocarbon stream, a stripper water stream, and a tar/oil stream; and recirculating the settler bottom quench water streams and the stripper water stream to the quench tower; wherein the settler bottom quench water comprises tar that comprises C 9 hydrocarbons and heavier and the quench tower effluent water comprises tar that comprises C 9 hydrocarbons and heavier. receiving furnace effluent in a quench tower; quenching the furnace effluent in the quench tower with quench water to produce a bottom stream comprising pyrolysis gasoline, quench tower effluent water, and a gas stream; settling the bottom stream comprising pyrolysis gasoline in at least two quench water settlers in parallel, each of the quench water settlers producing a settler hydrocarbon stream and a settler bottom quench water stream; and feeding the quench tower effluent water to a water stripper for separation into a stripper hydrocarbon stream, a stripper water stream, and a tar/oil stream; and recirculating the settler bottom quench water streams and the stripper water stream to the quench tower;
A wearable electronic device , comprising: a heart rate sensor configured to determine a heart rate of the user; a motion sensor configured to detect motion of a user, the motion sensor being operated in an initial calibration phase during which the heart rate sensor is powered and detecting the heart rate of the user, and the motion sensor is detecting the motion of the user, the calibration phase being used to compute a correspondence between motion of the user and the heart rate of the user, the motion sensor being operated in a low power phase during which the heart rate sensor is powered down and not detecting the heart rate of the user; and a processor configured to run a heart rate estimation module being configured to calculate an estimated heart rate of the user based upon the motion of the user detected from the motion sensor during the low power phase and based upon the correspondence between the heart rate of the user and the motion of the user determined in the initial calibration phase; wherein the heart rate estimation module is further configured to calculate a heart rate derivative and a representative motion value for each of a plurality of intervals during the initial calibration phase, and apply a statistical filter to the heart rate derivatives and the representative motion values calculated in the initial calibration phase in order to compute a correspondence between the heart rate of the user and the motion of the user. a heart rate sensor configured to determine a heart rate of the user; a motion sensor configured to detect motion of a user, the motion sensor being operated in an initial calibration phase during which the heart rate sensor is powered and detecting the heart rate of the user, and the motion sensor is detecting the motion of the user, the calibration phase being used to compute a correspondence between motion of the user and the heart rate of the user, the motion sensor being operated in a low power phase during which the heart rate sensor is powered down and not detecting the heart rate of the user; and a processor configured to run a heart rate estimation module being configured to calculate an estimated heart rate of the user based upon the motion of the user detected from the motion sensor during the low power phase and based upon the correspondence between the heart rate of the user and the motion of the user determined in the initial calibration phase; wherein the heart rate estimation module is further configured to calculate a heart rate derivative and a representative motion value for each of a plurality of intervals during the initial calibration phase, and apply a statistical filter to the heart rate derivatives and the representative motion values calculated in the initial calibration phase in order to compute a correspondence between the heart rate of the user and the motion of the user.
An ex-vivo or in vitro method for characterizing and/or measuring the amount of subsets of circulating tissue-derived microvesicles (MV) comprising the step of detecting at least the CD172a marker on said microvesicles, in an isolated biological sample obtained from the subject, wherein if the microvesicle is positive for CD172a the microvesicle is characterized as a cardiac derived microvesicle.
An anchoring device for use with a subcutaneous lead comprising: one or more arms ; a body coupling the one or more arms together and having a nose on one end thereof; and characterized by an attachment feature configured to pass through or into a suture hole in a distal tip of the subcutaneous lead . one or more arms ; a body coupling the one or more arms together and having a nose on one end thereof; and characterized by an attachment feature configured to pass through or into a suture hole in a distal tip of the subcutaneous lead .