mhurhangee/patent-ind-claim-en huggingface dataset:
Process for filling at least one downstream tank with a cryogenic liquid from an upstream storage tank, which upstream storage tank contains, under a storage pressure higher than atmospheric pressure, the cryogenic fluid in liquid phase at the bottom of the storage tank and in gas phase at the top of the storage tank, said upstream storage tank being designed to supply the downstream tank with liquid extracted from the bottom of the storage tank, and to be supplied from the exterior with fluid, in which a pressure difference is created and maintained between the upstream storage tank and the downstream tank, by establishing, in the gas phase in the upstream storage tank, a pressure that is higher than the equilibrium pressure in the storage tank, this being in the following manner: - a control device is provided, able to automatically manage the supply pressure of the cryogenic liquid in the upstream storage tank at the foot of the tank and the temperature of the stored cryogenic liquid, in response to a measurement of the pressure of the gas phase in the upstream storage tank and the position of this measurement relative to the equilibrium pressure in the storage tank; - the pressure of the gas phase in the upstream storage tank is maintained at a pressure that is higher than the equilibrium pressure in the storage tank by acting on the supply pressure of the cryogenic liquid in the upstream storage tank at the foot of the tank and on the temperature of the stored cryogenic liquid, where: - if after a period of use, i.e. during an idle period during the transfer, the temperature difference of the stored cryogenic liquid with respect to a chosen setpoint value is greater than a configured hysteresis, a new pressure setpoint is delivered to the control system in order to reduce the associated gas headspace pressure; - then in anticipation of operational reuse of rapid transfer, the gas headspace is repressurized to an operating pressure. - a control device is provided, able to automatically manage the supply pressure of the cryogenic liquid in the upstream storage tank at the foot of the tank and the temperature of the stored cryogenic liquid, in response to a measurement of the pressure of the gas phase in the upstream storage tank and the position of this measurement relative to the equilibrium pressure in the storage tank; - the pressure of the gas phase in the upstream storage tank is maintained at a pressure that is higher than the equilibrium pressure in the storage tank by acting on the supply pressure of the cryogenic liquid in the upstream storage tank at the foot of the tank and on the temperature of the stored cryogenic liquid, where: - if after a period of use, i.e. during an idle period during the transfer, the temperature difference of the stored cryogenic liquid with respect to a chosen setpoint value is greater than a configured hysteresis, a new pressure setpoint is delivered to the control system in order to reduce the associated gas headspace pressure; - then in anticipation of operational reuse of rapid transfer, the gas headspace is repressurized to an operating pressure.
Method for remotely controlling at least a first function of a safety device of a vehicle , wherein a remote control device comprises a first radio unit , whereby a connection to a mobile radio network is operable, whereby the following steps are carried out: a) determination of the position of the vehicle b) determination of the position of the remote control device c) determination of an actual distance between the position of the vehicle and the remote control device d) comparison of the actual distance with at least one defined target distance , the first function being activated if the actual distance is less than or equal to the target distance , where the following step is performed as the first function: e) contactless authentication of the remote control device , characterized in that the steps b), c), d) and e) are carried out cyclically as a function of a situation-dependent state parameter of the remote control device . wherein a remote control device comprises a first radio unit , whereby a connection to a mobile radio network is operable, whereby the following steps are carried out: a) determination of the position of the vehicle b) determination of the position of the remote control device c) determination of an actual distance between the position of the vehicle and the remote control device d) comparison of the actual distance with at least one defined target distance , the first function being activated if the actual distance is less than or equal to the target distance , a) determination of the position of the vehicle b) determination of the position of the remote control device c) determination of an actual distance between the position of the vehicle and the remote control device d) comparison of the actual distance with at least one defined target distance , the first function being activated if the actual distance is less than or equal to the target distance , where the following step is performed as the first function: e) contactless authentication of the remote control device , characterized in that the steps b), c), d) and e) are carried out cyclically as a function of a situation-dependent state parameter of the remote control device .
Reactor for carrying out a chemical reaction, which has a reactor vessel , one or more reaction tubes , and means for the electrical heating of one or more reaction tubes , the reaction tubes being guided through the reactor with at least one U-bend or extending through said reactor without U-bends, characterized in that the reactor vessel has one or more discharge openings that are permanently open or are designed to open above a predetermined pressure level, and in that gas feed means are provided which are designed to feed an inerting gas into the reactor vessel , and in that means are provided that are designed to prevent a reaction operation if an oxygen content and/or pressure and/or hydrocarbon content measured in the reactor vessel and/or in a discharge line downstream of the reactor vessel exceeds a predetermined value in each case.
A MEMS DVC, comprising: a MEMS device disposed above a substrate, the MEMS device having a moveable MEMS element disposed within a cavity, a pull-up electrode above the moveable MEMS element, a pull-down electrode below the moveable MEMS element, and an RF electrode disposed below the moveable MEMS element; a poly-resistor, Rpu, made of polysilicon coupled to the pull-up electrode and a poly-resistor, Rpd, made of polysilicon coupled to the pull-down electrode; and an RF ground shield above the poly-resistor Rpd ; and characterized in that the MEMS DVC further comprises: an n-type well underneath the poly-resistor Rpd, and electrically isolated from the poly-resistor Rpd; and wherein the RF ground shield above the poly-resistor Rpd is coupled to the n-type well via an n-type well contact that surrounds the poly-resistor Rpd. a MEMS device disposed above a substrate, the MEMS device having a moveable MEMS element disposed within a cavity, a pull-up electrode above the moveable MEMS element, a pull-down electrode below the moveable MEMS element, and an RF electrode disposed below the moveable MEMS element; a poly-resistor, Rpu, made of polysilicon coupled to the pull-up electrode and a poly-resistor, Rpd, made of polysilicon coupled to the pull-down electrode; and an RF ground shield above the poly-resistor Rpd ; and characterized in that the MEMS DVC further comprises: an n-type well underneath the poly-resistor Rpd, and electrically isolated from the poly-resistor Rpd; and wherein the RF ground shield above the poly-resistor Rpd is coupled to the n-type well via an n-type well contact that surrounds the poly-resistor Rpd.
A portable radiological cassette comprising: • a housing , • a digital detector of incident ionizing radiation, taking the form of a flat panel , the detector being positioned in the housing and comprising a unique memory space , and being intended to generate a plurality of digital images of patients exposed to the ionizing radiation, an identification code being associated with each of the patients, each image of the plurality of digital images of the patients being stored in the unique memory space ; characterized in that it comprises a device for selecting the identification code of the patients, which is intended to write the identification code of the patients in the unique memory space , so as to associate in the unique memory space each image of the plurality of images to a patient. • a housing , • a digital detector of incident ionizing radiation, taking the form of a flat panel , the detector being positioned in the housing and comprising a unique memory space , and being intended to generate a plurality of digital images of patients exposed to the ionizing radiation, an identification code being associated with each of the patients, each image of the plurality of digital images of the patients being stored in the unique memory space ;
A wooden structural panel for use in construction applications, said wooden structural panel being a rectangular cuboid having a length (L), a width (W), and a height (H), wherein said length (L) is equal to or greater than said width (W), and wherein said width (W) is equal to or greater than said height (H), said wooden structural panel comprising: a plurality of laminated wooden members defining: two opposite primary faces extending in the length-width direction, two opposite side faces extending in the length-height direction, two opposite end faces extending in the width-height direction, said wooden structural panel further comprising: at least one space arranged between said two opposite primary faces and arranged between said two opposite side faces , at least one material being arranged in said at least one space , characterized in that said at least one space is arranged between said two opposite end faces ; wherein said at least one space and the at least one material arranged therein is encapsulated inside the wooden structural panel , and the average density of the total amount of material in said at least one space is greater than the average density of said wooden members . two opposite primary faces extending in the length-width direction, two opposite side faces extending in the length-height direction, two opposite end faces extending in the width-height direction, said wooden structural panel further comprising: at least one space arranged between said two opposite primary faces and arranged between said two opposite side faces , at least one material being arranged in said at least one space , characterized in that said at least one space is arranged between said two opposite end faces ; wherein said at least one space and the at least one material arranged therein is encapsulated inside the wooden structural panel , and the average density of the total amount of material in said at least one space is greater than the average density of said wooden members . at least one space arranged between said two opposite primary faces and arranged between said two opposite side faces , at least one material being arranged in said at least one space , characterized in that said at least one space is arranged between said two opposite end faces ; wherein said at least one space and the at least one material arranged therein is encapsulated inside the wooden structural panel , and the average density of the total amount of material in said at least one space is greater than the average density of said wooden members .
Suction tube filter arrangement for a fluid tank , in particular for a fluid tank containing urea solution , the arrangement comprising at least one suction tube which defines a suction tube direction (S), and at least one filter member , wherein the suction tube is at least partially arranged inside the filter member , wherein the filter member extends along the suction tube direction (S), wherein the at least one suction tube forms a support structure for the at least one filter member , the filter member being expanded by the suction tube , wherein the filter member without suction tube is a flat body that gets expanded by the suction tube , forming an overall lens-shaped cross section perpendicular to a longitudinal direction (L), the longitudinal direction being defined by the suction tube direction (S), wherein the at least one suction tube is provided with at least one monolithically integrated fixation means for undetachably fixating the filter member on the suction tube and with at least one connection port for connecting the arrangement with a counter connection port of a fluid tank system , and wherein the suction tube together with the at least one monolithically integrated fixation means and the at least one connection port is formed as a single piece from a plastic material.
A freeze-dried nanosuspension comprising 4-[[4-[[4-(2-cyanoethenyl)-2,6-dimethylphenyl]amino]-2-pyrimidinyl]amino]benzonitrile or a stereoisomeric form thereof; or a pharmaceutically acceptable salt thereof, and a steric stabilizer which is a solid at room temperature, and polyvinyl pyrrolidone.
A process for removing arsenic from a petroleum fraction comprising contacting the fraction with an arsenic removal catalyst, in the presence of hydrogen; the catalyst comprising: a porous support comprising alumina; between 8 and 14 wt. % of molybdenum and an amount of nickel sufficient to result in an atomic ratio of nickel metal to molybdenum metal of between 1.5 and 2.5. a porous support comprising alumina; between 8 and 14 wt. % of molybdenum and an amount of nickel sufficient to result in an atomic ratio of nickel metal to molybdenum metal of between 1.5 and 2.5.
A composition comprising: a) a positive amplification control (PAC) plasmid comprising: (i) a parvovirus nucleic acid sequence comprising a parvovirus NS-1 sequence, (ii) an M13K07 nucleic acid sequence of SEQ ID NO: 8, and (iii) an artificial nucleic acid sequence unique to the plasmid, wherein the artificial nucleic acid sequence comprises a sequence of 17 to 20 nucleotides, and no more than 7 to 10 consecutive internal nucleotides and no more than 6 consecutive 3' nucleotides are identical to any parvovirus sequence set forth in SEQ ID NOs: 9 and 12-37; b) a rodent parvovirus specific forward oligonucleotide primer; c) a rodent parvovirus specific oligonucleotide detection probe; d) an artificial oligonucleotide detection probe capable of hybridising to (iii); e) a rodent parvovirus specific reverse oligonucleotide primer; f) an M13 specific forward oligonucleotide primer; g) an M13 specific oligonucleotide detection probe; h) and an M13 specific reverse oligonucleotide primer; and i) a buffer wherein the rodent parvovirus specific primers and detection probe hybridize to the NS-1 sequence, and wherein the M13 primers and probe hybridize to the sequence of SEQ ID NO: 8. a) a positive amplification control (PAC) plasmid comprising: (i) a parvovirus nucleic acid sequence comprising a parvovirus NS-1 sequence, (ii) an M13K07 nucleic acid sequence of SEQ ID NO: 8, and (iii) an artificial nucleic acid sequence unique to the plasmid, wherein the artificial nucleic acid sequence comprises a sequence of 17 to 20 nucleotides, and no more than 7 to 10 consecutive internal nucleotides and no more than 6 consecutive 3' nucleotides are identical to any parvovirus sequence set forth in SEQ ID NOs: 9 and 12-37; b) a rodent parvovirus specific forward oligonucleotide primer; c) a rodent parvovirus specific oligonucleotide detection probe; d) an artificial oligonucleotide detection probe capable of hybridising to (iii); e) a rodent parvovirus specific reverse oligonucleotide primer; f) an M13 specific forward oligonucleotide primer; g) an M13 specific oligonucleotide detection probe; h) and an M13 specific reverse oligonucleotide primer; and i) a buffer wherein the rodent parvovirus specific primers and detection probe hybridize to the NS-1 sequence, and wherein the M13 primers and probe hybridize to the sequence of SEQ ID NO: 8.
A method of measuring a height of water on ice , comprising: emitting terahertz radiation having a frequency of 10 THz or less toward a first surface of the ice ; and measuring transmitted or reflected radiation of the terahertz radiation to measure the height of the water on the first surface of the ice from a result of the measurement.
A garment steamer for treating a garment, the garment steamer comprising: - a base , - a pole assembly extending from the base , said pole assembly comprising an upper pole section (U) and a middle pole section (M), - a telescopic coupling for movably coupling the upper pole section (U) and the middle pole section (M), - an ironing board for supporting the garment during treatment, - a first pivoting coupling (P1) for coupling the ironing board and the upper pole section (U), - a linking arm having a fixed length (LN1) and being arranged between the ironing board and the middle pole section (M), - a second pivoting coupling (P2) for coupling a first end (C) of the linking arm and the ironing board , - a third pivoting coupling (P3) for coupling a second end (A) of the linking arm and the middle pole section (M). - a base , - a pole assembly extending from the base , said pole assembly comprising an upper pole section (U) and a middle pole section (M), - a telescopic coupling for movably coupling the upper pole section (U) and the middle pole section (M), - an ironing board for supporting the garment during treatment, - a first pivoting coupling (P1) for coupling the ironing board and the upper pole section (U), - a linking arm having a fixed length (LN1) and being arranged between the ironing board and the middle pole section (M), - a second pivoting coupling (P2) for coupling a first end (C) of the linking arm and the ironing board , - a third pivoting coupling (P3) for coupling a second end (A) of the linking arm and the middle pole section (M).
An ABCF1 inhibiting siRNA for use in the treatment of a disease associated with an aberrant DNA sensing pathway, wherein the disease associated with an aberrant DNA sensing pathway is one of Aicardi-Goutieres syndrome (AGS), familial chilblain lupus (FCL), and retinal vasculopathy with cerebral leukodystrophy (RVCL).
Method for inflating the tires of a vehicle comprising a step (S1, S2, S7, S8) of reading a registration number (NI) of the vehicle by optical character recognition on an image taken by a first camera of a license plate (PI) of the vehicle , a step (S9) of identifying a set of inflation pressure data (PG1, PG2, ...PGn) corresponding to different tire mountings (M1, M2, ...Mn) associated with a type of the vehicle from at least one query with the read registration number (NI) of at least one database , a step (S3 to S6, S10, S11) of identifying a tire mounting (Mv) present in the vehicle , a step (S12) of selecting inflation pressure data (PGv) for the vehicle from the set of identified inflation pressure data (PG1, PG2, ...PGn) on the basis of the identified tire mounting (Mv) of the vehicle , and a step (S16) of controlling, with the selected inflation pressure data (PGv) as inflation pressure set values, an automatic tire inflator connected to the tires of the vehicle in order to adjust the inflation pressures of the tires, wherein the step of identifying the tire mounting present in the vehicle comprises a sub-step (S3) of guiding the traveling vehicle to a suitable parking position in which a wheel of the vehicle is placed in a determined wheel position (PO) with respect to a second camera and a laser beam scanning device , a sub-step (S4, S5) of validating the parking of the vehicle by detecting, on images taken by the second camera , an absence of movement of the wheel at the determined wheel position (PO) for a determined period of time (DR), and a sub-step (S6) of reading tire technical characteristic data (DPN, DCT) identifying the tire mounting (Mv) present in the vehicle by optical character recognition on an image taken with laser beam scanning (BL) by the second camera of a tire sidewall of the wheel at the determined wheel position (PO).
A liquid pharmaceutical formulation for injection comprising: (i) at least 100 mg/ml of an antibody; (ii) procaine or a pharmaceutically acceptable salt thereof; and (iii) a pharmaceutically acceptable solvent; wherein the liquid pharmaceutical formulation, when in a volume suitable for injection: (a) has an absolute viscosity of from 1 mPa.s (1 cP) to 50 mPa.s (50 cP) at 25°C as measured using a cone and plate viscometer or a microfluidic viscometer; and (b) the absolute viscosity of the liquid pharmaceutical formulation is less than an absolute viscosity of a control composition comprising the antibody and the pharmaceutically acceptable solvent but without the procaine or pharmaceutically acceptable salt thereof; wherein the absolute viscosity is an extrapolated zero-shear viscosity. (i) at least 100 mg/ml of an antibody; (ii) procaine or a pharmaceutically acceptable salt thereof; and (iii) a pharmaceutically acceptable solvent; (a) has an absolute viscosity of from 1 mPa.s (1 cP) to 50 mPa.s (50 cP) at 25°C as measured using a cone and plate viscometer or a microfluidic viscometer; and (b) the absolute viscosity of the liquid pharmaceutical formulation is less than an absolute viscosity of a control composition comprising the antibody and the pharmaceutically acceptable solvent but without the procaine or pharmaceutically acceptable salt thereof;
A deployment device for deploying a surgical fastener including a back span and two legs extending in a distal direction from opposing ends of the back span and which have a first closed position with a first shape and a first width, and a second open position with a second shape and a second width that is larger than the first width, the deployment device comprising: a handle ; an elongated shaft extending from the handle ; a restraining mechanism that temporarily limits distal movement of the back span of the surgical fastener ; a spreader ; and an anvil characterised in that the spreader is configured to engage an interior surface of the legs of the surgical fastener in the first closed position when distal movement of the back span of the surgical fastener has been temporarily limited by the restraining mechanism, wherein moving the spreader in a distal direction relative to the back span applies a distally directed force to the legs which spreads the legs of the surgical fastener from the first closed position towards the second open position; and in that the anvil is configured to engage the legs that have been spread towards the second open position by the spreader , and wherein the anvil is configured to further deform the legs into said second open position when movement of the back span is no longer limited by the restraining mechanism and the fastener is deployed in a distal direction. a handle ; an elongated shaft extending from the handle ; a restraining mechanism that temporarily limits distal movement of the back span of the surgical fastener ; a spreader ; and an anvil characterised in that the spreader is configured to engage an interior surface of the legs of the surgical fastener in the first closed position when distal movement of the back span of the surgical fastener has been temporarily limited by the restraining mechanism, wherein moving the spreader in a distal direction relative to the back span applies a distally directed force to the legs which spreads the legs of the surgical fastener from the first closed position towards the second open position; and in that the anvil is configured to engage the legs that have been spread towards the second open position by the spreader , and wherein the anvil is configured to further deform the legs into said second open position when movement of the back span is no longer limited by the restraining mechanism and the fastener is deployed in a distal direction.