mhurhangee/patent-ind-claim-en huggingface dataset:
System for in-vitro diagnostic analysis, the system comprising a vessel processing area comprising a first and a second static vessel holders , each comprising one or more vessel holding positions , a common vessel input station for placing at least one vessel at a time in at least one of the vessel holding positions of the first and second static vessel holders , and a vessel distribution unit, wherein the common vessel input station is operatively coupled to the vessel distribution unit for feeding individual vessels to the common vessel input station starting from a bulk supply, wherein the vessel processing area further comprises two movable vessel workstations , each comprising a vessel gripper and being translatable relative to the first and second static vessel holder respectively to transfer vessels between different vessel holding positions of the respective static vessel holder , the system further comprising a reagent pipette head comprising at least three reagent pipetting nozzles and a sample pipette head comprising at least two sample pipetting nozzles .
A method for the preparation of an aqueous imaging medium of a hyperpolarised agent through SABRE for use in in vivo MRI imaging, wherein said method comprises the following steps executed in the following order: (i) preparing a bi-phasic solvent system comprising an aqueous component and a non-aqueous component, selected such that when mixed together they form an emulsion, said solvent system comprising a target substrate capable of being hyperpolarised through SABRE and a SABRE hyperpolarisation transfer catalyst; (ii) adding parahydrogen ( p -H 2 ) gas to the solvent system; (iii) agitating the solvent system to form an emulsion comprising the aqueous component and the non-aqueous component thereby transferring the spin order from the hyperpolarisation transfer catalyst to the target substrate; (iv) if the target substrate is in the non-aqueous component adjusting the pH of the solvent system by the addition of salts or acid or base to the solvent system to extract the target substrate into the aqueous component; (v) adding a solvent phase-separation promoter, selected from an alkali metal salt, an alkaline earth metal salt or an alcohol, to the solvent system; and (vi) separating the non-aqueous component and the aqueous component wherein the aqueous component contains the hyperpolarised target substrate and provides the aqueous imaging medium (i) preparing a bi-phasic solvent system comprising an aqueous component and a non-aqueous component, selected such that when mixed together they form an emulsion, said solvent system comprising a target substrate capable of being hyperpolarised through SABRE and a SABRE hyperpolarisation transfer catalyst; (ii) adding parahydrogen ( p -H 2 ) gas to the solvent system; (iii) agitating the solvent system to form an emulsion comprising the aqueous component and the non-aqueous component thereby transferring the spin order from the hyperpolarisation transfer catalyst to the target substrate; (iv) if the target substrate is in the non-aqueous component adjusting the pH of the solvent system by the addition of salts or acid or base to the solvent system to extract the target substrate into the aqueous component; (v) adding a solvent phase-separation promoter, selected from an alkali metal salt, an alkaline earth metal salt or an alcohol, to the solvent system; and (vi) separating the non-aqueous component and the aqueous component wherein the aqueous component contains the hyperpolarised target substrate and provides the aqueous imaging medium
A method for producing a plastic film from thermoplastic plastic in a film production installation by extrusion from a die - in particular by extrusion of a film tubing from a ring slot die of a blow head or by extrusion of a film web from a wide slot die -, wherein the plastic or the plastic melt is fed to the die by means of at least one extruder, wherein the film tubing or the film web is then extruded from the die, is cooled preferably with the aid of a cooling device and is wound up by means of a winding device to form a film roll or a film coil, characterised in that a plurality of reference parameters, i.e. at least two reference parameters, preferably at least three reference parameters, are made available, that in the course of the operation of the installation a multiplicity of input parameters different from the reference parameters are measured with the aid of measuring devices and that a plurality of output parameters corresponding to the reference parameters are determined from these measured input parameters by means of at least one evaluation device, that the reference parameters or output parameters are selected from the parameters relating to the plastic used from the group "raw material density, bulk density, metering quantity, melt density, feed rate, melt leakage", that the input parameters are selected from the group "melt pressure, extruder temperature, extruder speed, extruder torque, melt temperature" and that, in the event of a deviation of at least one ascertained value of an output parameter from at least one value of a reference parameter, an anomaly of the output parameter is signalled.
A fluorescence sensor comprising: a detection substrate section , on a first principal plane of which a concave portion having a bottom surface parallel to the first principal plane is present and, wherein in the concave portion a photoelectric conversion element configured to receive fluorescent light (F) and output a detection signal is formed; a light-emitting element disposed in the concave portion of the detection substrate section and configured to generate excitation light (E); and an indicator layer disposed on an inside of the concave portion and configured to generate the fluorescent light (F) corresponding to the excitation light (E) and an analyte amount; a light blocking layer , which covers the indicator layer , configured to let the analyte pass and penetrate into the indicator layer ; characterized in that said photoelectric conversion element is formed in at least a part of a side surface of the concave portion ; said light-emitting element is disposed on the bottom surface of the concave portion ; said indicator layer is disposed on an upper side of the light-emitting element ; the detection substrate section includes a wiring substrate and a frame-like substrate bonded to the wiring substrate , the frame-like substrate forming a through-hole to be the concave portion , and a surface of the wiring substrate is the bottom surface of the concave portion , and a wall surface of the through-hole in the frame-like substrate is the side surface of the concave portion . a detection substrate section , on a first principal plane of which a concave portion having a bottom surface parallel to the first principal plane is present and, wherein in the concave portion a photoelectric conversion element configured to receive fluorescent light (F) and output a detection signal is formed; a light-emitting element disposed in the concave portion of the detection substrate section and configured to generate excitation light (E); and an indicator layer disposed on an inside of the concave portion and configured to generate the fluorescent light (F) corresponding to the excitation light (E) and an analyte amount; a light blocking layer , which covers the indicator layer , configured to let the analyte pass and penetrate into the indicator layer ; characterized in that said photoelectric conversion element is formed in at least a part of a side surface of the concave portion ; said light-emitting element is disposed on the bottom surface of the concave portion ; said indicator layer is disposed on an upper side of the light-emitting element ; the detection substrate section includes a wiring substrate and a frame-like substrate bonded to the wiring substrate , the frame-like substrate forming a through-hole to be the concave portion , and a surface of the wiring substrate is the bottom surface of the concave portion , and a wall surface of the through-hole in the frame-like substrate is the side surface of the concave portion .
A bag packaging, produced from a film laminate comprising a carrier layer and a sealing film forming a sealing layer , the bag packaging being produced by folding and sealing the film laminate , whereby overlapping sealed seams are created, characterized in that the sealing film comprises a sealable polymer having a layer thickness in the range of 10 μm to 100 μm, preferably 10 μm to 80 μm, and especially particularly preferably in the range of 20 μm to 70 μm, wherein surface structures being incorporated on a first side of the sealing film at least in areas where sealing takes place, wherein the largest thickness (h 2 ) of the sealing film being at least 10% greater than the smallest thickness (h 1 ) of the sealing film and the largest lateral extension (b 1 , b 2 ) of the surface structures being smaller than 500 μm, and a slip additive being added to the sealing film in an amount that yields an S-value of less than 10,000, and preferably less than 5,000, in that the surface structures are formed on a first side of the sealing film and an opposite second side of the sealing film is joined to the carrier layer of the film laminate , and in that during sealing, adjoining film laminates with the sealing film are pressed together and compressed, in particular in the overlapping region of multiple sealed seams , so as to avoid the formation of air channels in the overlapping region.
Process for the esterification of all or some of the hydroxyl functions of a wood-type material and/or of one of the products derived therefrom, characterized in that said material is brought into contact with a fluid in a supercritical state carrying at least one unsaturated natural plant oil, under conditions suitable for carrying out said esterification, comprising at least the steps consisting in: i) placing, within a chamber, a wood-type material preferably having a water content of less than 20% by weight relative to the total weight thereof, and at least one unsaturated natural plant oil carried, preferably dissolved, in a liquid fluid capable of changing to a supercritical state under pressure; ii) subjecting the whole mixture to pressure conditions that are effective for the impregnation of said material by said oil; and iii) exposing said material impregnated by said oil obtained in step ii) to pressure and temperature conditions that are effective for changing said fluid to a supercritical state and carrying out the esterification reaction, wherein step ii) is carried out at room temperature and under a pressure of between 15.0 and 25.0 MPa, and wherein step iii) is carried out at a pressure greater than that of step ii) and with heating. i) placing, within a chamber, a wood-type material preferably having a water content of less than 20% by weight relative to the total weight thereof, and at least one unsaturated natural plant oil carried, preferably dissolved, in a liquid fluid capable of changing to a supercritical state under pressure; ii) subjecting the whole mixture to pressure conditions that are effective for the impregnation of said material by said oil; and iii) exposing said material impregnated by said oil obtained in step ii) to pressure and temperature conditions that are effective for changing said fluid to a supercritical state and carrying out the esterification reaction, wherein step ii) is carried out at room temperature and under a pressure of between 15.0 and 25.0 MPa, and wherein step iii) is carried out at a pressure greater than that of step ii) and with heating.
A method of servicing a wellbore in a subterranean formation, the method comprising placing a wellbore servicing fluid comprising a lost circulation composite material into the wellbore, the lost circulation composite material comprising a swellable component and a reinforcing component; wherein the swellable component comprises a water-swellable polymer selected from crosslinked hydrolyzed polyacrylonitrile; a salt of carboxyalkyl starch; a salt of carboxyalkyl cellulose; a salt of crosslinked carboxyalkyl polysaccharide; starch grafted with acrylonitrile and acrylate monomers; a crosslinked polymer of two or more of allylsulfonate, 2-acrylamido-2-methyl-1-propanesulfonic acid and 3-allyloxy-2-hydroxy-1-propanesulfonic acid; and any combination thereof.
A device that guides the percutaneous delivery of a medical device to a target spatial location on or within tissue, the device comprising: a circular positioning ring having at least one vertical receiving channel and having a lower horizontal receiving channel operably coupled to said vertical receiving channel ; a rotational element including at least one flange matingly received by said vertical receiving channel and operably engaged with said lower horizontal receiving channel ; a directional element for guiding delivery of the medical device and operably coupled to said circular positioning ring ; and a coupling mechanism including: a base portion circumscribed by the circular positioning ring ; and a shaft having first and second ends, said first end operably coupled to said base portion and said second end received by said rotational element wherein a rotational force applied to said rotational element will cause said at least one flange to rotate in lower horizontal receiving channel . a circular positioning ring having at least one vertical receiving channel and having a lower horizontal receiving channel operably coupled to said vertical receiving channel ; a rotational element including at least one flange matingly received by said vertical receiving channel and operably engaged with said lower horizontal receiving channel ; a directional element for guiding delivery of the medical device and operably coupled to said circular positioning ring ; and a coupling mechanism including: a base portion circumscribed by the circular positioning ring ; and a shaft having first and second ends, said first end operably coupled to said base portion and said second end received by said rotational element a base portion circumscribed by the circular positioning ring ; and a shaft having first and second ends, said first end operably coupled to said base portion and said second end received by said rotational element wherein a rotational force applied to said rotational element will cause said at least one flange to rotate in lower horizontal receiving channel .
A compound selected from the following table: YDE-001 YDE-008 YDE-011 YDE-015 YDE-016 YDE-023 YDE-026 YDE-038 YDE-042 YDE-043 YDE-044 YDE-045 YDE-048 YDE-049 YDE-054 YDE-057 YDE-058 YDE-059 YDE-060
Vehicle tyre comprising a tread pattern and spike holes which are intended for receiving spikes and are delimited inwardly in the radial direction R of the vehicle tyre by a bottom of the hole , characterized in that on an annular surface of the bottom of the hole , a plurality of spaced-apart depressions are arranged in such a way that they are distributed one behind the other in a row in the circumferential direction of extent of the annular surface .
A firearm comprising a frame in which a barrel having a barrel axis is fixedly mounted, a barrel extension that can be connected to the barrel , a breech having a sliding piece, a gas drive, the gas drive having an annular piston which is displaceably arranged on the barrel to form an expansion chamber between a front resting position and a rear end position, acts on the sliding piece by means of operating rods and is pushed forward by retaining springs , at least one gas port penetrating the wall of the barrel in the region of the expansion chamber and a selector being provided, wherein the expansion chamber is delimited by a ring surface and an inner cylinder surface of the piston , an end surface of the selector and the barrel , and wherein the selector is arranged on the barrel so as to be rotatable about the barrel axis and is rotatable into at least two predefined rest positions, in which rest positions the gas flow from the expansion chamber into the environment is delimitable by at least one selector opening formed on the selector and a gas outlet channel of the piston . the expansion chamber is delimited by a ring surface and an inner cylinder surface of the piston , an end surface of the selector and the barrel , and wherein the selector is arranged on the barrel so as to be rotatable about the barrel axis and is rotatable into at least two predefined rest positions, in which rest positions the gas flow from the expansion chamber into the environment is delimitable by at least one selector opening formed on the selector and a gas outlet channel of the piston .
An emergency lighting system , comprising: a DC bus , at least one emergency lighting means connected to the DC bus , a central unit connected to the DC bus , wherein the central unit is configured to supply the at least one emergency lighting means with a bus voltage via the DC bus , and an operating device for communicating with the central unit , wherein the operating device is configured to display a graphical user interface , wherein the operating device is configured to receive a user input on the graphical user interface , and wherein the central unit comprises a powerline modulation unit for modulating the bus voltage, wherein the central unit is configured to commission and/or to configure the at least one emergency lighting means based on the user input via powerline modulation of the bus voltage, characterized in that the central unit in a non-emergency mode is configured to periodically transmit a status signal to the at least one emergency lighting means on the DC bus , in particular by means of a powerline modulation of the bus voltage, and the at least one emergency lighting means , in particular a LED-driver or converter (503-1...n), is configured to receive the status signal, wherein the at least one emergency lighting means is configured to detect an emergency situation if the status signal is not received within a certain reference time span. a DC bus , at least one emergency lighting means connected to the DC bus , a central unit connected to the DC bus , wherein the central unit is configured to supply the at least one emergency lighting means with a bus voltage via the DC bus , and an operating device for communicating with the central unit , wherein the operating device is configured to display a graphical user interface , wherein the operating device is configured to receive a user input on the graphical user interface , and wherein the central unit comprises a powerline modulation unit for modulating the bus voltage, wherein the central unit is configured to commission and/or to configure the at least one emergency lighting means based on the user input via powerline modulation of the bus voltage, characterized in that the central unit in a non-emergency mode is configured to periodically transmit a status signal to the at least one emergency lighting means on the DC bus , in particular by means of a powerline modulation of the bus voltage, and the at least one emergency lighting means , in particular a LED-driver or converter (503-1...n), is configured to receive the status signal, wherein the at least one emergency lighting means is configured to detect an emergency situation if the status signal is not received within a certain reference time span.
A catheter assembly comprising: a catheter shaft having proximal and distal end portions ; and a funnel assembly associated with the distal end portion of the catheter shaft , wherein a drainage portion is defined through the funnel assembly (20, 20a, 20b 210, 310, 408) and the funnel assembly (20, 20a, 20b 210, 310, 408) includes a groove along at least a portion of an outer perimeter of the funnel assembly , with the groove being configured to receive at least a portion of the catheter shaft for securing said at least a portion of the catheter shaft to the funnel assembly for disposal and/or a shaft channel defined through the funnel assembly , with the shaft channel being configured to receive at least a portion of the catheter shaft for securing said at least a portion of the catheter shaft to the funnel assembly for disposal. a catheter shaft having proximal and distal end portions ; and a funnel assembly associated with the distal end portion of the catheter shaft , wherein a drainage portion is defined through the funnel assembly (20, 20a, 20b 210, 310, 408) and the funnel assembly (20, 20a, 20b 210, 310, 408) includes a groove along at least a portion of an outer perimeter of the funnel assembly , with the groove being configured to receive at least a portion of the catheter shaft for securing said at least a portion of the catheter shaft to the funnel assembly for disposal and/or a shaft channel defined through the funnel assembly , with the shaft channel being configured to receive at least a portion of the catheter shaft for securing said at least a portion of the catheter shaft to the funnel assembly for disposal. a groove along at least a portion of an outer perimeter of the funnel assembly , with the groove being configured to receive at least a portion of the catheter shaft for securing said at least a portion of the catheter shaft to the funnel assembly for disposal and/or a shaft channel defined through the funnel assembly , with the shaft channel being configured to receive at least a portion of the catheter shaft for securing said at least a portion of the catheter shaft to the funnel assembly for disposal.
A container for a three-dimensional printing system, comprising: a chamber for storing a build material; and a base mounted within an open end of the chamber , the base , having a channel structure and comprising at least one material-conveying structure , wherein the chamber comprises an inner surface having helical raised portions to convey build material between the chamber and the at least one material-conveying structure during rotation, and wherein the at least one material-conveying structure comprises a spiral scoop having an opening to receive build material conveyed by the helical raised portions , the opening is aligned in a radial direction perpendicular to an axis of rotation of the container , and the at least one material-conveying structure is configured to transport the build material towards an opening of the channel structure . a chamber for storing a build material; and a base mounted within an open end of the chamber , the base , having a channel structure and comprising at least one material-conveying structure , wherein the chamber comprises an inner surface having helical raised portions to convey build material between the chamber and the at least one material-conveying structure during rotation, and wherein the at least one material-conveying structure comprises a spiral scoop having an opening to receive build material conveyed by the helical raised portions , the opening is aligned in a radial direction perpendicular to an axis of rotation of the container , and the at least one material-conveying structure is configured to transport the build material towards an opening of the channel structure .
A method implemented at a wireless device , comprising: determining per carrier a time unit of a discontinuous reception, DRX, timer based on one of a plurality of different numerologies; and determining a time interval indicated by the DRX timer based on the time unit, the time interval being associated with a duration of time for the DRX timer. determining per carrier a time unit of a discontinuous reception, DRX, timer based on one of a plurality of different numerologies; and determining a time interval indicated by the DRX timer based on the time unit, the time interval being associated with a duration of time for the DRX timer.