mhurhangee/patent-ind-claim-en huggingface dataset:
Method for adapting a riserless workover system configuration into an open water riser workover system configuration , wherein the system comprising an emergency disconnect package arranged between a lubricator section and well control package , the lubricator section comprises a wireline shear seal valve assembly , the system further comprises an emergency disconnect package connector for disconnecting the emergency disconnect package from the well control package in case of emergency, characterized in that the method comprising the steps of - relocate the wireline shear seal valve assembly by rotating the valve assembly upside down prior to attaching a riser assembly to the configured open water riser workover system , and - connecting at least one accumulator arrangement to the configured open water riser workover system . - relocate the wireline shear seal valve assembly by rotating the valve assembly upside down prior to attaching a riser assembly to the configured open water riser workover system , and - connecting at least one accumulator arrangement to the configured open water riser workover system .
Transport device for a sheet-format substrate having at least one first substrate feed device and having at least one second substrate feed device , wherein the at least one second substrate feed device comprises at least one forward stop and at least one singulating device , wherein at least one substrate guiding device is located between the at least one first substrate feed device and the at least one second substrate feed device and wherein the at least one substrate guiding device has at least one guide element , wherein the at least one guide element is mounted such that it is movable and/or moved in two different directions independently of one another, characterized in that the at least one guide element has at least one guide bar which is mounted for rotational displacement.
A method of producing a test body for diffusion tensor imaging, which comprises a plurality of channels in a structuring material, the channels preferably having a maximum cross-section of 625 μm 2 , wherein a virtual model of the test body is created and the virtual model is fed to a structuring device which produces the test body by means of a 3D printing-based, in particular lithography-based, structuring process, the structuring process being designed as a multiphoton lithography process, in particular as a multiphoton absorption process, in which the structuring material containing a photosensitizer or photoinitiator is irradiated in a location-selective manner, wherein the radiation is successively focused on focal points lying within the structuring material, resulting in that in each case a volume element of the material located in the focal point is subjected to a change in state by means of a photochemical reaction as a result of multiphoton absorption and in that the plurality of channels is created in the structuring material.
An oral dosage form in the form of a capsule, said dosage form comprising: Compound A (3-(5-amino-2-methyl-4-oxo-4H-quinazolin-3-yl)-piperidine-2,6-dione), or an enantiomer or a mixture of enantiomers thereof, a pharmaceutically acceptable salt, solvate, hydrate, co-crystal, clathrate, or polymorph thereof, at an amount of 0.5 to 5 weight percent of the total weight of the composition; a binder or filler selected from microcrystalline cellulose, starch, and mannitol at an amount of 90 to 98 weight percent of total weight of the composition, stearic acid as lubricant in an amount of 0.75 weight percent of total weight of the composition, and a disintegrant selected from crospovidone Type A and colloidal silicon dioxide at an amount of 1 to 5 weight percent of total weight of the composition, wherein the lubricant is not magnesium stearate.
System for controlling variable pitch vanes for a turbine engine, comprising at least one control ring mounted to freely rotate about an annular casing with an axis A of revolution, at least one annular row of variable pitch vanes extending substantially radially relative to said axis A and being connected to said at least one control ring so that a rotation of the ring about the casing sets the vanes into rotation about substantially radial axes B, and means for actuating said at least one ring so as to rotate it about the casing, said actuation means being connected to said at least one ring by linking means comprising a shaft extending along an axis C that is substantially radial relative to said axis A and is mounted to freely rotate about said axis C on the casing, characterised in that said shaft comprises a radially internal end mounted on the casing by a pivot link or ball joint link and a radially external end connected by a pivot link or ball joint link to a fixed arm secured to the annular casing or to an other casing .
Balancing device for turbochargers, having a base body , which has centrally arranged receptacle , in which a rotary element to be balanced, in particular a shaft of a turbocharger, can be inserted axially in order to hold the rotary element such that it rotates about its axis of rotation, a plurality of hydraulic cylinders arranged around the central receptacle being provided on the base body , by means of which hydraulic cylinders the rotary element can be fixed in the central receptacle , wherein the base body is formed as a decoupling plate , which has an inner plate section and an outer plate section elastically connected to the inner plate section and surrounding the inner plate section , the decoupling plate having a plurality of circumferential slots via which the inner plate section is resiliently decoupled from the outer plate section in such a way that a plurality of holding sections separated from one another are formed on the decoupling plate , characterized in that the hydraulic cylinders are arranged and fastened on the inner plate section .
A gripping tool to be mounted on a handling device for handling pieces cut out from planar sheets, comprising an engaging head (T2) being interchangeably paired with an operating end of a displaceable handling device, actuation means mounted on said engaging head (T2), comprising at least a first actuator unit , and a plurality of attaching and coupling units (N1-N4) provided with attaching and coupling devices (1-4), mounted on said engaging head (T2), wherein said attaching and coupling units (N 1 -N 4 ) are mounted on a frame comprising at least four rods articulated together through respective hinging means (C 1 -C 4 ) arranged on a lying plane, said attaching and coupling devices (1-4) are arranged on a plane parallel to said lying plane, said articulated frame is supported on said engaging head (T2), said first actuator unit drives one of said rods of said articulated frame by rotation around at least one of said hinging means (C 1 -C 4 ) on said lying plane, characterized in that said articulated frame is composed of four articulated rods with opposite pairs of equal length, articulated together through the four hinged elements (C 1 -C 4 ) thereby forming an articulated quadrilateral link, and in that said first actuator unit drives said one of said rods such that the articulated frame takes two end-of-travel configurations, a folded one, wherein said attaching and coupling units (N1-N4) are close to each other and aligned, and a deployed one, wherein said attaching and coupling units (N 1 -N 4 ) are spaced apart along two different Cartesian axes. an engaging head (T2) being interchangeably paired with an operating end of a displaceable handling device, actuation means mounted on said engaging head (T2), comprising at least a first actuator unit , and a plurality of attaching and coupling units (N1-N4) provided with attaching and coupling devices (1-4), mounted on said engaging head (T2), wherein said attaching and coupling units (N 1 -N 4 ) are mounted on a frame comprising at least four rods articulated together through respective hinging means (C 1 -C 4 ) arranged on a lying plane, said attaching and coupling devices (1-4) are arranged on a plane parallel to said lying plane, said articulated frame is supported on said engaging head (T2), said first actuator unit drives one of said rods of said articulated frame by rotation around at least one of said hinging means (C 1 -C 4 ) on said lying plane, characterized in that said articulated frame is composed of four articulated rods with opposite pairs of equal length, articulated together through the four hinged elements (C 1 -C 4 ) thereby forming an articulated quadrilateral link, and in that said first actuator unit drives said one of said rods such that the articulated frame takes two end-of-travel configurations, a folded one, wherein said attaching and coupling units (N1-N4) are close to each other and aligned, and a deployed one, wherein said attaching and coupling units (N 1 -N 4 ) are spaced apart along two different Cartesian axes.
A medical or veterinary device for delivery of acoustic or mechanical energy to perform an action at a target site of an object including humans and animals, the medical or veterinary device comprising: a conduit having a proximal end and a distal end with a tip ; a displacement signal source (14, DS1-DS8) for generating a displacement signal including an acoustic wave or a mechanical wave; a coupling assembly having a first end coupled to the displacement signal source and a second end coupled at a coupling point on the conduit between the proximal end and the distal end of the conduit, wherein the second end is coupled to the conduit at a coupling angle between the second end of the coupling assembly and the conduit, the coupling assembly being configured to couple the displacement signal to the conduit during use; a pressure controller coupled to the proximal end of the conduit and being configured to vary an amount of pressure in the conduit during use; and a control unit coupled to the displacement signal source for controlling the displacement signal source to generate the displacement signal based on at least one of the location of the coupling point and the coupling angle to implement a desired acoustic or mechanical wave mode at a portion of the conduit. a conduit having a proximal end and a distal end with a tip ; a displacement signal source (14, DS1-DS8) for generating a displacement signal including an acoustic wave or a mechanical wave; a coupling assembly having a first end coupled to the displacement signal source and a second end coupled at a coupling point on the conduit between the proximal end and the distal end of the conduit, wherein the second end is coupled to the conduit at a coupling angle between the second end of the coupling assembly and the conduit, the coupling assembly being configured to couple the displacement signal to the conduit during use; a pressure controller coupled to the proximal end of the conduit and being configured to vary an amount of pressure in the conduit during use; and a control unit coupled to the displacement signal source for controlling the displacement signal source to generate the displacement signal based on at least one of the location of the coupling point and the coupling angle to implement a desired acoustic or mechanical wave mode at a portion of the conduit.
Vehicular system for assisting the delivery of goods, said goods being defined by a plurality of parcels (C) to be delivered, each one of them being equipped with an RFID tag, the system comprising - a cartographic satellite navigation system (GPS navigator) adapted to drive said vehicle along a route comprising a plurality of stops corresponding to the delivery places of one or more of said parcels (C), - an RFID portal associated to a vehicle loading opening, - optical acquisition means (cameras), - means for displaying images (display), - processing means (CPU) interoperating with said satellite navigation system, with said RFID portal, with said optical acquisition means and with said means for displaying images, wherein said processing means are configured to acquire at least one image of a parcel introduced in said vehicle through said RFID portal and to display said at least one image by means of said display means when the cartographic satellite navigation system detects the reaching of a delivery place corresponding to said parcel, the system being characterized in that said processing means (CPU) are configured to acquire a sequence of images from said optical acquisition means (cameras) and to extract portions of images relating to the parcel up to a respective final position in a loading compartment and to extract said final position of the parcel (C) with respect to the vehicle loading compartment and to store said position together with said at least one image of the parcel (C). - a cartographic satellite navigation system (GPS navigator) adapted to drive said vehicle along a route comprising a plurality of stops corresponding to the delivery places of one or more of said parcels (C), - an RFID portal associated to a vehicle loading opening, - optical acquisition means (cameras), - means for displaying images (display), - processing means (CPU) interoperating with said satellite navigation system, with said RFID portal, with said optical acquisition means and with said means for displaying images, wherein said processing means are configured to acquire at least one image of a parcel introduced in said vehicle through said RFID portal and to display said at least one image by means of said display means when the cartographic satellite navigation system detects the reaching of a delivery place corresponding to said parcel, the system being characterized in that said processing means (CPU) are configured to acquire a sequence of images from said optical acquisition means (cameras) and to extract portions of images relating to the parcel up to a respective final position in a loading compartment and to extract said final position of the parcel (C) with respect to the vehicle loading compartment and to store said position together with said at least one image of the parcel (C).
Diagnostic reagent for quantitative determination of procalcitonin in a sample, wherein the reagent is an aqueous suspension of polymer particles with covalently bound antibodies against procalcitonin, characterised in that - the suspended polymer particles have an average particle size in the range from >300 nm to 450 nm, - the suspension comprises a proportion of sugar or sugar alcohol dissolved therein in the range from 25 to 250 g/l, and - the suspension has a pH in the range from 8.5 to 10. - the suspended polymer particles have an average particle size in the range from >300 nm to 450 nm, - the suspension comprises a proportion of sugar or sugar alcohol dissolved therein in the range from 25 to 250 g/l, and - the suspension has a pH in the range from 8.5 to 10.
A cable shielding assembly , comprising: a conductor ; and a conductive composite shield extending around at least a portion of the conductor, the conductive composite shield having a non-conductive matrix and conductive particles within the non-conductive matrix; wherein the conductive composite shield has a resistivity of less than 0.05 ohm·cm; characterised in that : the conductive particles of the conductive composite shield have a volume concentration within the non-conductive matrix between 20% and 40% total loading. a conductor ; and a conductive composite shield extending around at least a portion of the conductor, the conductive composite shield having a non-conductive matrix and conductive particles within the non-conductive matrix; wherein the conductive composite shield has a resistivity of less than 0.05 ohm·cm; characterised in that : the conductive particles of the conductive composite shield have a volume concentration within the non-conductive matrix between 20% and 40% total loading.
An anti-procalcitonin antibody capable of specifically binding to human procalcitonin, wherein the anti-procalcitonin antibody is anti-procalcitonin monoclonal antibody produced by a hybridoma cell line with an accession number of CGMCC No. 10417.
A primary alkaline electrochemical cell comprising an anode including an electrochemically active anode material selected from the group of zinc, zinc alloys, cadmium, iron, and metal hydride, a cathode including an electrochemically active cathode material selected from the group of manganese oxide, manganese dioxide, electrolytic manganese dioxide (EMD), chemical manganese dioxide (CMD), high power electrolytic manganese dioxide (HP EMD), lambda manganese dioxide, silver oxide, nickel oxide, nickel oxyhydroxide, copper oxide, bismuth oxide, high-valence nickel, and mixtures thereof, a separator between said anode and said cathode, and an electrolyte comprising an ionically-conductive component dissolved in water, and characterized in that the separator in combination with the electrolyte has an initial area-specific resistance between 100 mOhm-cm 2 and 220 mOhm-cm 2 ; a final area-specific resistance less than 500 mOhm-cm 2 ; and an ASR ratio of less than 1.9, wherein the ASR ratio is the ratio of the final area-specific resistance to the initial area-specific resistance; ASR is determined as described in the description; the initial area-specific resistance of the separator in combination with the electrolyte is an area-specific resistance prior to 1-electron discharge; and the final area-specific resistance is an area-specific resistance at the point of completion of 1-electron discharge.
A method of preparing a sub-atmospheric storage and delivery vessel configured for delivery of a steady, sustained and sufficient flow of a high purity, vapor phase of antimony source material from therein at ambient conditions, comprising the steps of: providing a container with multiple walls having a thermal conductivity of greater than 5 W/m*K; introducing an antimony-containing material in a liquid phase into the container in a presence of an inert gas, said antimony-containing material having a purity level at least equal to the high purity of the vapor phase of the antimony source material; creating a predetermined headspace volume (335; 336) of greater than or equal to 1 L, said predetermined headspace volume having trace amounts of impurities; evaporating a sufficient amount of the antimony containing material to form the high purity, vapor phase in the predetermined headspace volume, wherein said step of evaporating is performed with an absence of external heating; freezing the liquid phase of the antimony containing material to form frozen antimony containing material; condensing the high purity, vapor phase of the antimony containing material from the predetermined headspace volume to form a condensed high purity, vapor phase; evacuating nitrogen, water vapor, the inert gas and any other gaseous impurities from the predetermined headspace volume; allowing the condensed high purity, vapor phase to warm under the ambient conditions so as to re-form the high purity, vapor phase within the predetermined headspace volume; and allowing the frozen antimony containing material to warm under the ambient conditions to re-form the liquid phase. providing a container with multiple walls having a thermal conductivity of greater than 5 W/m*K; introducing an antimony-containing material in a liquid phase into the container in a presence of an inert gas, said antimony-containing material having a purity level at least equal to the high purity of the vapor phase of the antimony source material; creating a predetermined headspace volume (335; 336) of greater than or equal to 1 L, said predetermined headspace volume having trace amounts of impurities; evaporating a sufficient amount of the antimony containing material to form the high purity, vapor phase in the predetermined headspace volume, wherein said step of evaporating is performed with an absence of external heating; freezing the liquid phase of the antimony containing material to form frozen antimony containing material; condensing the high purity, vapor phase of the antimony containing material from the predetermined headspace volume to form a condensed high purity, vapor phase; evacuating nitrogen, water vapor, the inert gas and any other gaseous impurities from the predetermined headspace volume; allowing the condensed high purity, vapor phase to warm under the ambient conditions so as to re-form the high purity, vapor phase within the predetermined headspace volume; and allowing the frozen antimony containing material to warm under the ambient conditions to re-form the liquid phase.
A multi-junction solar cell comprising: a first solar cell (A) comprising a first photoelectric conversion device ; a second solar cell (B) comprising a plurality of second photoelectric conversion devices connected in series, each of said second photoelectric conversion devices having an n-type or a p-type silicon layer and back contacts ; and an insulating layer (C) between the first solar cell (A) and the second solar cell (B), wherein each of the plurality of the second photoelectric conversion devices has both of an n+ region exposed at the surface of the silicon layer opposite to the insulating layer (C) and a p+ region exposed at the surface of the silicon layer opposite to the insulating layer (C), the back contacts being connected to said regions , wherein device isolation regions are provided between the second photoelectric conversion devices connected in series, and the device isolation regions exist in a part of the insulating layer (C). a first solar cell (A) comprising a first photoelectric conversion device ; a second solar cell (B) comprising a plurality of second photoelectric conversion devices connected in series, each of said second photoelectric conversion devices having an n-type or a p-type silicon layer and back contacts ; and an insulating layer (C) between the first solar cell (A) and the second solar cell (B), wherein each of the plurality of the second photoelectric conversion devices has both of an n+ region exposed at the surface of the silicon layer opposite to the insulating layer (C) and a p+ region exposed at the surface of the silicon layer opposite to the insulating layer (C), the back contacts being connected to said regions , wherein device isolation regions are provided between the second photoelectric conversion devices connected in series, and the device isolation regions exist in a part of the insulating layer (C).
A breath test meal comprising a 13 C label for use in a method of diagnosis of delayed gastric emptying, the method comprising: supplying a subject with a breath test meal having a 13 C label; collecting only one breath sample of the subject at only a single time point after the subject consumes the breath test meal, wherein the single time point is a time point that has been previously validated as showing a selected measurement difference between breath test measurements for normal subjects and breath test measurements for delayed subjects, wherein the selected measurement difference is a measurement difference of at least 10 kPCD between normal subjects and delayed subjects, and wherein the single time point is a 90 minute time point; generating a gastric emptying measurement from the breath sample; and using said measurement to provide a test result. supplying a subject with a breath test meal having a 13 C label; collecting only one breath sample of the subject at only a single time point after the subject consumes the breath test meal, wherein the single time point is a time point that has been previously validated as showing a selected measurement difference between breath test measurements for normal subjects and breath test measurements for delayed subjects, wherein the selected measurement difference is a measurement difference of at least 10 kPCD between normal subjects and delayed subjects, and wherein the single time point is a 90 minute time point; generating a gastric emptying measurement from the breath sample; and using said measurement to provide a test result.