mhurhangee/patent-ind-claim-en huggingface dataset:
A method of measuring a hypoxic session index (HSI) as a measure of the response of a patient to hypoxic training, with measurement of an index (KG) that characterizes the oxygen saturation in the patient's blood, having the steps: I. Supplying the patient with a normoxic gas mixture in an initial phase (AP) over a defined first period; II. Determining the mean value of the index (KG) in the initial phase; III. Supplying the patient with a hypoxic gas mixture in a hypoxic phase (HP) over a defined hypoxic period; IV. Supplying the patient with the normoxic or hyperoxic gas mixture in a reoxygenation phase (RP) over a defined hyperoxic period and in a subsequent predetermined concluding period; V. Plotting the index (KG) against time in the initial phase (AP), the hypoxic phase (HP) and the reoxygenation phase (RP) in the form of a data curve ; VI. Determining the hypoxic session index from a difference between the data curve and a predetermined reference curve , wherein the reference curve is a data curve which is determined for a reference person after steps I to V, or a data curve which is calculated by averaging data curves of a plurality of reference persons, wherein the data curves are determined after steps I to V for the reference persons. I. Supplying the patient with a normoxic gas mixture in an initial phase (AP) over a defined first period; II. Determining the mean value of the index (KG) in the initial phase; III. Supplying the patient with a hypoxic gas mixture in a hypoxic phase (HP) over a defined hypoxic period; IV. Supplying the patient with the normoxic or hyperoxic gas mixture in a reoxygenation phase (RP) over a defined hyperoxic period and in a subsequent predetermined concluding period; V. Plotting the index (KG) against time in the initial phase (AP), the hypoxic phase (HP) and the reoxygenation phase (RP) in the form of a data curve ; VI. Determining the hypoxic session index from a difference between the data curve and a predetermined reference curve , wherein the reference curve is a data curve which is determined for a reference person after steps I to V, or a data curve which is calculated by averaging data curves of a plurality of reference persons, wherein the data curves are determined after steps I to V for the reference persons.
A probe (200; 300; 300') for subdural implantation into the human brain , the probe (200; 300; 300') comprising a plurality of sensing electrodes (205; 305), a coil (202; 302) for receiving power via inductive coupling, signal processing circuitry (203; 303) coupled to the sensing electrodes (205; 305), means for wirelessly transmitting data-carrying signals, and a head (200a; 300a) in which the coil (202; 302) is located; the probe (200; 300; 300') characterised by being of drawing-pin-like form, having either a rigid shank on which the sensing electrodes are located, or a non-rigid shank made up of a plurality of flexible and/or soft insulated wires , each wire being connected to a respective sensing electrode ; wherein the sensing electrodes (205; 305) are a plurality of discrete independent sensing electrodes (205; 305); and wherein the plurality of discrete independent sensing electrodes (205; 305) are located at different depth positions along the shank (200b; 300b). the probe (200; 300; 300') characterised by being of drawing-pin-like form, having either a rigid shank on which the sensing electrodes are located, or a non-rigid shank made up of a plurality of flexible and/or soft insulated wires , each wire being connected to a respective sensing electrode ; a rigid shank on which the sensing electrodes are located, or a non-rigid shank made up of a plurality of flexible and/or soft insulated wires , each wire being connected to a respective sensing electrode ; wherein the sensing electrodes (205; 305) are a plurality of discrete independent sensing electrodes (205; 305); and wherein the plurality of discrete independent sensing electrodes (205; 305) are located at different depth positions along the shank (200b; 300b).
A stable pharmaceutical formulation comprising an anti-HER2 antibody, sorbitol, from 1.0 mM to 3.0 mM L-histidine and from 1.5 mM to 3.0 mM L-histidine hydrochloride, and polyethylene glycol (PEG), wherein sorbitol and anti-HER2 antibody is present in a molar ratio of 550 to 700 mole of sorbitol : 1 mole of anti-HER2 antibody, wherein the PEG to anti-HER2 antibody mole ratio is in a range of 2:1 to 50:1, and wherein the molecular weight of the PEG is from 2000g/mol to 5000g/mol, wherein the molar concentration of the anti-HER2 antibody is 0.10mM to 0.25mM, and wherein the formulation has a pH of 5.0 - 7.5. wherein the PEG to anti-HER2 antibody mole ratio is in a range of 2:1 to 50:1, and wherein the molecular weight of the PEG is from 2000g/mol to 5000g/mol, wherein the molar concentration of the anti-HER2 antibody is 0.10mM to 0.25mM, and wherein the formulation has a pH of 5.0 - 7.5.
A packaging for packing fresh food products comprising a container comprising a bottom and a peripheral wall, said bottom being covered by a false bottom consisting of a wall arranged parallel to the bottom and supporting the product, the wall of the false bottom comprising an upper face on which the product rests and a lower face opposite the bottom of the packaging, characterized in that: - the upper face comprises an array of separate protuberances distributed over the entirety of said face, forming a compartmentalized flat support; and - the lower face is provided with retaining studs resting on the bottom and defining a space between the false bottom and the bottom. - the upper face comprises an array of separate protuberances distributed over the entirety of said face, forming a compartmentalized flat support; and - the lower face is provided with retaining studs resting on the bottom and defining a space between the false bottom and the bottom.
A method for dynamic Mode S address allocation for vehicles , wherein the method comprises: providing a database with a plural number of Mode S addresses; assigning one of the Mode S addresses to a vehicle when a condition is fulfilled, wherein the assigned Mode S address is not available for other vehicles after the assignment; and deassigning the Mode S address from the vehicle when said condition is no longer fulfilled, wherein the deassigned Mode S address is available for assignment to another vehicle after the deassignment, characterized in that the Mode S addresses are provided in said database for a predetermined airspace , and said condition is a time the vehicle is present in said predetermined airspace . providing a database with a plural number of Mode S addresses; assigning one of the Mode S addresses to a vehicle when a condition is fulfilled, wherein the assigned Mode S address is not available for other vehicles after the assignment; and deassigning the Mode S address from the vehicle when said condition is no longer fulfilled, wherein the deassigned Mode S address is available for assignment to another vehicle after the deassignment, characterized in that the Mode S addresses are provided in said database for a predetermined airspace , and said condition is a time the vehicle is present in said predetermined airspace .
A kit comprising at least one multiple support device for wheel chocks , said at least one multiple support device comprising - a support rod having a body extending along a main extension axis (X-X), from an attachment end to an associable vehicle frame, to a cantilevered end , adapted to receive as an insertion at least one wheel chock for said vehicle, - the body being provided with at least one fastening lug projecting from at least one side wall of the body so as to intercept and lock as an undercut an associable wheel chock , insertable on the body along an insertion direction (S-S) parallel to said main extension axis (X-X), the kit further comprising at least one wheel chock , wherein said at least one wheel chock is provided with a through hole , parallel to said body and shaped to be inserted on the body of the multiple support device , on the side of the cantilevered end , the kit being characterised in that the through hole crosses the wheel chock from a stop ramp for the associable vehicle wheel to a ground support wall of the wheel chock . - a support rod having a body extending along a main extension axis (X-X), from an attachment end to an associable vehicle frame, to a cantilevered end , adapted to receive as an insertion at least one wheel chock for said vehicle, - the body being provided with at least one fastening lug projecting from at least one side wall of the body so as to intercept and lock as an undercut an associable wheel chock , insertable on the body along an insertion direction (S-S) parallel to said main extension axis (X-X), the kit further comprising at least one wheel chock , wherein said at least one wheel chock is provided with a through hole , parallel to said body and shaped to be inserted on the body of the multiple support device , on the side of the cantilevered end , the kit being characterised in that the through hole crosses the wheel chock from a stop ramp for the associable vehicle wheel to a ground support wall of the wheel chock .
A composition for use in substantially neutralising the activity of an inhibitor of the coagulation fXa to prevent or stop bleeding comprising a polypeptide comprising amino acid residues 46 to 139 and 195 to 448 of SEQ ID NO: 3 or comprising an amino acid sequence having at least 95% sequence identity to the amino acid residues 46 to 139 and 195 to 448 of SEQ ID NO: 3, wherein the polypeptide: (a) (i) does not include amino acid residues 6-39 of SEQ ID NO: 3, or (ii) comprises an uncarboxylated, undercarboxylated, or decarboxylated factor Xa protein; (b) cannot assemble into a prothrombinase complex; and (c) is capable of binding to a factor Xa inhibitor. (a) (i) does not include amino acid residues 6-39 of SEQ ID NO: 3, or (ii) comprises an uncarboxylated, undercarboxylated, or decarboxylated factor Xa protein; (i) does not include amino acid residues 6-39 of SEQ ID NO: 3, or (ii) comprises an uncarboxylated, undercarboxylated, or decarboxylated factor Xa protein; (b) cannot assemble into a prothrombinase complex; and (c) is capable of binding to a factor Xa inhibitor.
A method, performed at a processor, comprising: obtaining , via one or more transceivers, a plurality of observations of a target volume by transmitting radar pulses and receiving reflections of those radar pulses from difference distances; determining a weight for each observation of the plurality of observations of the volume, wherein the weight is based on a change in phasor characteristics of the observation; combining the plurality of observations based on the weight, wherein combining the plurality of observations comprises combining observations corresponding to a range of distance bins; mitigating interference in the observation prior to combining the weighted observations; and identifying a physiological signal based on the combined observations, wherein the identifying comprises distinguishing a heartbeat signal from a respiratory signal in an area associated with both the heartbeat signal and the respiratory signal. obtaining , via one or more transceivers, a plurality of observations of a target volume by transmitting radar pulses and receiving reflections of those radar pulses from difference distances; determining a weight for each observation of the plurality of observations of the volume, wherein the weight is based on a change in phasor characteristics of the observation; combining the plurality of observations based on the weight, wherein combining the plurality of observations comprises combining observations corresponding to a range of distance bins; mitigating interference in the observation prior to combining the weighted observations; and identifying a physiological signal based on the combined observations, wherein the identifying comprises distinguishing a heartbeat signal from a respiratory signal in an area associated with both the heartbeat signal and the respiratory signal.
A stabilizer system for a motor vehicle, in particular for a utility vehicle, comprising at least one stabilizer strut , at least one elastomeric joint , at least one receiving bushing , and at least one fastening stud , wherein the elastomeric joint is arranged in the region of an end of the stabilizer strut , and wherein the receiving bushing is arranged in the interior of the elastomeric joint , the fastening stud being mounted in the receiving bushing , wherein the receiving bushing includes at least one at least partly conical seat for the fastening stud , characterized in that a corresponding conical counterpart of the fastening stud is inserted in the partly conical seat of the receiving bushing .
An LED-based light comprising: an elongate housing having a longitudinal axis and a vertical axis X, the housing defined by a base and two canted outer walls meeting at a rounded crown connecting the outer walls opposite the base , the housing defining an outer periphery of the LED-based light and a cavity ; wherein the housing is defined by an arced base, a first arced canted outer wall, and a second arced canted outer wall, wherein the arced base, the first arced canted outer wall, and the second arced canted outer wall form a triangle, an LED circuit board on which a plurality of LEDs are located, the LED circuit board positioned within the cavity , wherein the LED circuit board faces the rounded crown; and end caps positioned at opposite ends of the housing, each end cap having an open end to receive the housing and a closed end , characterized in that each end cap comprises a respective bi-pin connector, the bi-pin connectors configured to physically connect to a fluorescent light fixture and sockets, and in that at least one of the closed end of the end caps has a tapered surface tapering toward the open end , wherein the tapered surface tapers towards the open end at a corner opposite the base of the housing and away from the closed end, giving the closed end of the end cap a domed shaped configuration. an elongate housing having a longitudinal axis and a vertical axis X, the housing defined by a base and two canted outer walls meeting at a rounded crown connecting the outer walls opposite the base , the housing defining an outer periphery of the LED-based light and a cavity ; wherein the housing is defined by an arced base, a first arced canted outer wall, and a second arced canted outer wall, wherein the arced base, the first arced canted outer wall, and the second arced canted outer wall form a triangle, wherein the housing is defined by an arced base, a first arced canted outer wall, and a second arced canted outer wall, wherein the arced base, the first arced canted outer wall, and the second arced canted outer wall form a triangle, an LED circuit board on which a plurality of LEDs are located, the LED circuit board positioned within the cavity , wherein the LED circuit board faces the rounded crown; and end caps positioned at opposite ends of the housing, each end cap having an open end to receive the housing and a closed end , characterized in that each end cap comprises a respective bi-pin connector, the bi-pin connectors configured to physically connect to a fluorescent light fixture and sockets, and in that at least one of the closed end of the end caps has a tapered surface tapering toward the open end , wherein the tapered surface tapers towards the open end at a corner opposite the base of the housing and away from the closed end, giving the closed end of the end cap a domed shaped configuration.
The low-pressure high-flow shower, comprising a fixed part , a temperature control valve and a switching valve ; the fixed part has two water inlets and two water outlets , and the two water inlets are spaced along the length direction of the fixed part , and the two water outlets are between the two water inlets and circumferentially spaced along the fixed part , the temperature control valve has a temperature control valve core , and the temperature control valve core has two single water ports and a mixing water port, and the switching valve has a switching valve core; wherein the temperature control valve core is installed in the fixed part and one single water port is aligned with and connected with a water inlet, and the other water inlet and the other single water port are connected by a through waterway ;the switching valve core comprises a rotating wall which is rotatably connected with the fixed part , the rotating wall is located between the two water inlets , the two water outlets are circumferentially spaced with respect to the rotating wall , the inner hole of the rotating wall is connected with the mixing water outlet of the temperature control valve core , a through hole penetrating both inside and outside is arranged on the rotating wall, the through hole can be arranged to align with at least one of the two water outlets by rotating the rotating wall .
Apparatus for removing heat from a person's scalp in order to prevent hair loss, the apparatus comprising headwear and a feed pump for pumping a cold fluid to the headwear , and wherein: (i) the headwear comprises a body portion for fitting over the person's scalp, an inlet for the cold fluid, an outlet for the cold fluid, and fastener flaps which comprise matrices of hook or loop material and which fold over the headwear and adjustably releasably grip parts of the headwear for fastening the headwear securely on the person's head , wherein the headwear opens to a flat condition when it is not in use on the person's head , and the body portion comprises a plurality of internal walls which define pouch portions , the pouch portions being connected to one another to define a passageway through the body portion from the inlet to the outlet whereby the cold fluid is able to circulate through the body portion , the pouch portions are expandable by the cold fluid and caused in use to press against the person's scalp with a pressure which causes the body portion to be pressed into good contact with the person's scalp and thereby to facilitate maximum cold transfer from the body portion to the person's scalp, (ii) the feed pump comprises control means which is configured to maintain in use a substantially constant pressure in the headwear , characterized in that (iii) the control means comprises a pressure sensor located at the headwear , and (iv) the control means and the pressure sensor are configured such that the apparatus operates only at the substantially constant pressure and only within a pressure range of 5 - 20 millibars. (i) the headwear comprises a body portion for fitting over the person's scalp, an inlet for the cold fluid, an outlet for the cold fluid, and fastener flaps which comprise matrices of hook or loop material and which fold over the headwear and adjustably releasably grip parts of the headwear for fastening the headwear securely on the person's head , wherein the headwear opens to a flat condition when it is not in use on the person's head , and the body portion comprises a plurality of internal walls which define pouch portions , the pouch portions being connected to one another to define a passageway through the body portion from the inlet to the outlet whereby the cold fluid is able to circulate through the body portion , the pouch portions are expandable by the cold fluid and caused in use to press against the person's scalp with a pressure which causes the body portion to be pressed into good contact with the person's scalp and thereby to facilitate maximum cold transfer from the body portion to the person's scalp, (ii) the feed pump comprises control means which is configured to maintain in use a substantially constant pressure in the headwear , (iii) the control means comprises a pressure sensor located at the headwear , and (iv) the control means and the pressure sensor are configured such that the apparatus operates only at the substantially constant pressure and only within a pressure range of 5 - 20 millibars.
A pharmaceutical composition comprising 0.5 ±10% M of aqueous anhydrous sodium thiosulfate, 0.004 ±10% M of boric acid or a salt thereof, pH 8.6-8.8, and water
A method of verifying the accuracy of the operation of an analyte monitoring device (M), characterized in that the method comprises: receiving control information from a test cartridge with an analyte monitoring device, wherein the control information comprises a range of acceptable analyte concentration values for a control material , wherein the control material has a known and/or predetermined concentration of at least one analyte; automatically determining the presence of the control material using the analyte monitoring device (M); wherein determining the presence of the control material comprises identifying a control material versus a body fluid sample; analyzing the control material to measure the concentration of the at least one analyte contained therein; comparing the measured concentration of the at least one analyte with the control information to determine if the measured concentration corresponds to the range of concentration values obtained from the control information; and providing a pass or fail signal to indicate whether the measured concentration falls within the range of analyte concentration values. receiving control information from a test cartridge with an analyte monitoring device, wherein the control information comprises a range of acceptable analyte concentration values for a control material , wherein the control material has a known and/or predetermined concentration of at least one analyte; automatically determining the presence of the control material using the analyte monitoring device (M); wherein determining the presence of the control material comprises identifying a control material versus a body fluid sample; analyzing the control material to measure the concentration of the at least one analyte contained therein; comparing the measured concentration of the at least one analyte with the control information to determine if the measured concentration corresponds to the range of concentration values obtained from the control information; and providing a pass or fail signal to indicate whether the measured concentration falls within the range of analyte concentration values.
A process for coating a galling-resistant threaded tubular component for drilling or operating hydrocarbon wells, said tubular component having at one of its ends (1; 2) a threaded zone (3; 4) produced on Its external or Internal peripheral surface depending on whether the threaded end is male or female in type, characterized in that the process comprises the following steps: • dissolving one or more mineral salts which are not reactive towards the metals in a solvent; • depositing the solution obtained thereby on at least a portion of the threaded zone (3; 4); • evaporating off said solvent in order to obtain a dry film having a crystalline mineral structure having a high specific surface area, more than 20 m 2 /g, preferably more than 100 m 2 /g, the specific surface area being measured by the BET measurement process; • the threaded zone Is coated with a lubricating system once the mineral film has been formed; • wherein the solution is an alkaline silicate dissolved in water, • dissolving one or more mineral salts which are not reactive towards the metals in a solvent; • depositing the solution obtained thereby on at least a portion of the threaded zone (3; 4); • evaporating off said solvent in order to obtain a dry film having a crystalline mineral structure having a high specific surface area, more than 20 m 2 /g, preferably more than 100 m 2 /g, the specific surface area being measured by the BET measurement process; • the threaded zone Is coated with a lubricating system once the mineral film has been formed; • wherein the solution is an alkaline silicate dissolved in water,