mhurhangee/patent-ind-claim-en huggingface dataset:
A reagent for detecting a target substance containing a sugar chain that binds with lectin of Wisteria floribunda (WFA), wherein the reagent comprises a dimeric WFA immobilized carrier in which dimeric WFA formed by dimerization of WFA using a cross-linking agent, is immobilized on a solid phase carrier, wherein said cross-linking agent has at least one functional group selected from the group consisting of a N-hydroxysuccinimide ester group, an isothiocyano group, a chlorosulfone group, a chlorocarbonyl group, an oxyethylene group, a chloroalkyl group having 1 to 4 carbon atoms, an aldehyde group and a carboxyl group as a reactive group with the amino group in the dimeric WFA.
System comprising a rotor blade for a gas turbine , in particular an aircraft gas turbine, comprising a blade root , a blade neck adjoining the blade root in the radial direction (RR), an airfoil adjoining the blade neck in the radial direction (RR), a radially outer bulkhead wall for forming a radially inner delimitation portion of an annular space of a gas turbine , an axially leading bulkhead wall and an axially trailing bulkhead wall which are connected to the radially outer bulkhead wall such that the bulkhead walls enclose the blade neck from three sides, wherein the bulkhead walls project beyond the blade neck in the circumferential direction (UR), and comprising a blade root protective plate provided for arrangement on the blade root , wherein the blade root protective plate has at least one sealing portion which extends in the axial direction (AR) from the leading bulkhead wall to the trailing bulkhead wall and the radially outer side thereof is arranged opposite the radially outer bulkhead wall when the blade root protective plate is arranged on the blade root , wherein the bulkhead walls and the blade neck form a pocket which is open radially at the bottom, i.e. radially inwards, characterized in that the sealing portion completely closes the pocket radially at the bottom when the blade root protective plate is arranged on the blade root . a blade root , a blade neck adjoining the blade root in the radial direction (RR), an airfoil adjoining the blade neck in the radial direction (RR), a radially outer bulkhead wall for forming a radially inner delimitation portion of an annular space of a gas turbine , an axially leading bulkhead wall and an axially trailing bulkhead wall which are connected to the radially outer bulkhead wall such that the bulkhead walls enclose the blade neck from three sides, wherein the bulkhead walls project beyond the blade neck in the circumferential direction (UR), and comprising a blade root protective plate provided for arrangement on the blade root , wherein the blade root protective plate has at least one sealing portion which extends in the axial direction (AR) from the leading bulkhead wall to the trailing bulkhead wall and the radially outer side thereof is arranged opposite the radially outer bulkhead wall when the blade root protective plate is arranged on the blade root , wherein the bulkhead walls and the blade neck form a pocket which is open radially at the bottom, i.e. radially inwards, characterized in that the sealing portion completely closes the pocket radially at the bottom when the blade root protective plate is arranged on the blade root .
A data processing apparatus comprising: an instruction decoder configured to decode a stream of instructions; a data processor configured to process said decoded stream of instructions; wherein said data processor being configured to analyse said stream of instructions and to identify a plurality of adjacent instructions within said stream of instructions execution of which is dependent upon a same data condition, and execution of which when said data condition is not met does not change a value stored in any data register, and in response to identifying said plurality of adjacent instructions said data processor is configured to: commence determining whether said data condition is met or not; and commence processing said plurality of adjacent instructions without waiting for a determination of whether said data condition is met or not; and in response to determining that said data condition is not met; skip to a next instruction to be executed after said plurality of adjacent instructions without executing any intermediate ones of said plurality of adjacent instructions not yet executed and without restoring said value in said data register, and continue execution at said next instruction. an instruction decoder configured to decode a stream of instructions; a data processor configured to process said decoded stream of instructions; wherein said data processor being configured to analyse said stream of instructions and to identify a plurality of adjacent instructions within said stream of instructions execution of which is dependent upon a same data condition, and execution of which when said data condition is not met does not change a value stored in any data register, and in response to identifying said plurality of adjacent instructions said data processor is configured to: commence determining whether said data condition is met or not; and commence processing said plurality of adjacent instructions without waiting for a determination of whether said data condition is met or not; and in response to determining that said data condition is not met; skip to a next instruction to be executed after said plurality of adjacent instructions without executing any intermediate ones of said plurality of adjacent instructions not yet executed and without restoring said value in said data register, and continue execution at said next instruction.
Cosmetic sunscreen comprising a) bismuth oxychloride particles having a refractive index of 2.15 and b) 2,2'-methylenebis(6-(2H-benzotriazol-2-yl)-4-(1,1,3,3-tetramethylbutyl)phenol) (INCI: Methylene Bis-Benzotriazolyl Tetramethylbutylphenol) and/or 2,4,6-tris(biphenyl)-1,3,5-triazine (INCI: Tris-Biphenyl Triazine), characterized in that the preparation is free of polyethylene glycol, polyethylene glycol ethers and polyethylene glycol esters (so called PEG derivatives) and does not comprise any 3-(4-methylbenzylidene)camphor, 2-hydroxy-4-methoxybenzophenone (INCI: Oxybenzone), 2-ethylhexyl 4-methoxycinnamate, isoamyl 4-methoxycinnamate and ethylhexyl 2-cyano-3,3-diphenylacrylate (INCI: Octocrylene), any parabens, methylisothiazolinone, chlorphenesin, chloromethylisothiazolinone and DMDM hydantoin. a) bismuth oxychloride particles having a refractive index of 2.15 and b) 2,2'-methylenebis(6-(2H-benzotriazol-2-yl)-4-(1,1,3,3-tetramethylbutyl)phenol) (INCI: Methylene Bis-Benzotriazolyl Tetramethylbutylphenol) and/or 2,4,6-tris(biphenyl)-1,3,5-triazine (INCI: Tris-Biphenyl Triazine), characterized in that the preparation is free of polyethylene glycol, polyethylene glycol ethers and polyethylene glycol esters (so called PEG derivatives) and does not comprise any 3-(4-methylbenzylidene)camphor, 2-hydroxy-4-methoxybenzophenone (INCI: Oxybenzone), 2-ethylhexyl 4-methoxycinnamate, isoamyl 4-methoxycinnamate and ethylhexyl 2-cyano-3,3-diphenylacrylate (INCI: Octocrylene), any parabens, methylisothiazolinone, chlorphenesin, chloromethylisothiazolinone and DMDM hydantoin.
A crystalline Treprostinil monohydrate Form I, characterized by having an X-ray powder diffraction (XRPD) pattern comprising its two strongest characteristic peaks at the following 2θ reflection angles: 5.43±0.2°, and 10.87±0.2°.
A system for providing three dimensional views of virtual slide information contained in a computer constructed image object, comprising: a computer constructed image object comprising a plurality of scanned z-planes; and an image library module configured to access the computer constructed image object and provide a three dimensional view of contiguous virtual slide information, wherein the three dimensional view is a prism which extends across multiple z-planes and is skewed against the z-planes, and wherein a surface of the prism is first calculated within the computer constructed image object and then image data interior to the calculated surface is retrieved as the three dimensional view, said image library module further configured to derive views from the prism to provide vertical, horizontal and skewed cross sections of said prism. a computer constructed image object comprising a plurality of scanned z-planes; and an image library module configured to access the computer constructed image object and provide a three dimensional view of contiguous virtual slide information, wherein the three dimensional view is a prism which extends across multiple z-planes and is skewed against the z-planes, and wherein a surface of the prism is first calculated within the computer constructed image object and then image data interior to the calculated surface is retrieved as the three dimensional view, said image library module further configured to derive views from the prism to provide vertical, horizontal and skewed cross sections of said prism.
Control system for frequency control of a laser module , comprising at least one laser module for generating laser radiation, at least one control device coupled or couplable to the laser module , and at least one optical resonator coupled or couplable to the control device , wherein the control device comprises a semiconductor substrate , a first Pound-Drever-Hall system embodied on the semiconductor substrate and at least one second Pound-Drever-Hall system embodied on the semiconductor substrate , wherein the laser module is coupled to the first Pound-Drever-Hall system of the control device and is couplable to the at least second Pound-Drever-Hall system of the control device , wherein the first Pound-Drever-Hall system is coupled to the optical resonator and wherein the second Pound-Drever-Hall system is couplable to the optical resonator , and characterized in that the number of Pound-Drever-Hall systems is greater than the number of laser modules or optical resonators . the laser module is coupled to the first Pound-Drever-Hall system of the control device and is couplable to the at least second Pound-Drever-Hall system of the control device , wherein the first Pound-Drever-Hall system is coupled to the optical resonator and wherein the second Pound-Drever-Hall system is couplable to the optical resonator , and characterized in that the number of Pound-Drever-Hall systems is greater than the number of laser modules or optical resonators .
A pressure-reducing valve comprising a valve housing , in a housing interior of which is provided a valve carrier which has at least one through-flow channel , and comprising a pot-shaped valve body which is guided displaceably from an open position into a closed position in opposition to a restoring force, in which closed position the valve body abuts by way of the circumferential edge of its pot shape in such a manner against a valve seat , which is provided on the valve carrier , that the valve body closes at least one channel opening of the at least one through-flow channel , wherein at least one retaining sleeve is arranged on the valve carrier or on the valve body , on which at least one retaining sleeve a stop is provided which interacts with a counter stop in such a manner that in the open position of the pressure-reducing valve the stop and the counter stop delimit the sliding distance of the valve body relative to the valve carrier , and wherein the valve carrier has a valve carrier portion , on which is provided an annular seal by which the valve carrier portion abuts sealingly against the housing inside circumference of the valve housing , wherein a retaining pin , which is provided on the valve body or on the valve carrier , in each case protrudes into the at least one retaining sleeve , and in that the counter stop is provided on the outside circumference of the retaining pin .
A method for customizing a haptic boundary based on a patient-specific anatomy, comprising: obtaining a standard haptic boundary based on a geometry of a virtual implant model to be implanted on the anatomy, wherein the standard haptic boundary is defined by a plurality of vertices and edges arranged to accommodate a geometry of a cutting tool ; identifying a reference feature associated with the virtual implant model ; determining an intersection between the identified reference feature and a virtual model associated with an anatomy of the patient; identifying an anatomic perimeter at the intersection between the identified reference feature and the virtual model of the anatomy; determining an anatomic feature on the virtual model of the anatomy from the intersection of the reference feature and the virtual model of the anatomy; and modifying the standard haptic boundary based on at least one anatomic feature to generate a customized haptic boundary by moving one or more of the plurality of vertices subject to controls that ensure that the customized haptic boundary maintains a shape that can accommodate the cutting tool, wherein the controls designate, for each vertex of the plurality of vertices, that the vertex can stretch only in certain directions, remains fixed, or cannot stretch more than a specified amount. obtaining a standard haptic boundary based on a geometry of a virtual implant model to be implanted on the anatomy, wherein the standard haptic boundary is defined by a plurality of vertices and edges arranged to accommodate a geometry of a cutting tool ; identifying a reference feature associated with the virtual implant model ; determining an intersection between the identified reference feature and a virtual model associated with an anatomy of the patient; identifying an anatomic perimeter at the intersection between the identified reference feature and the virtual model of the anatomy; determining an anatomic feature on the virtual model of the anatomy from the intersection of the reference feature and the virtual model of the anatomy; and modifying the standard haptic boundary based on at least one anatomic feature to generate a customized haptic boundary by moving one or more of the plurality of vertices subject to controls that ensure that the customized haptic boundary maintains a shape that can accommodate the cutting tool, wherein the controls designate, for each vertex of the plurality of vertices, that the vertex can stretch only in certain directions, remains fixed, or cannot stretch more than a specified amount.
Hair treatment device , comprising: - two arms movable against one another, being able to take a spaced apart configuration for introducing a hair strand between them, and a close configuration for treating the hair strand, the arms being movable in this close configuration along the strand, - two contact surfaces respectively carried by the two arms , disposed opposite one another, at least one of the contact surfaces being heating, - at least one steam outlet carried by one of the arms at a distance from the corresponding contact surface , to expose the hair engaged between the arms to steam, - a containment structure , enabling an at least partial containment of the steam, carried at least partially by the other of said arms , characterized in that the containment structure has at least one reinforcement forming a recess, located facing said at least one steam outlet . - two arms movable against one another, being able to take a spaced apart configuration for introducing a hair strand between them, and a close configuration for treating the hair strand, the arms being movable in this close configuration along the strand, - two contact surfaces respectively carried by the two arms , disposed opposite one another, at least one of the contact surfaces being heating, - at least one steam outlet carried by one of the arms at a distance from the corresponding contact surface , to expose the hair engaged between the arms to steam, - a containment structure , enabling an at least partial containment of the steam, carried at least partially by the other of said arms , characterized in that the containment structure has at least one reinforcement forming a recess, located facing said at least one steam outlet .
A method of monitoring depletion of a coolant in a cooling system associated with at least one imaging modality (308A-N), the method comprising: receiving a set of signal values from a sensing unit associated with the cooling system , wherein the set of signal values correspond to one or more parameters of the cooling system , characterised by further comprising determining a class associated with the set of signal values using a trained artificial intelligence model; selecting a prediction model capable of predicting a depletion rate of the coolant in the cooling system from a plurality of predetermined prediction models based on the class associated with the set of signal values; computing a depletion rate of the coolant in the cooling system based on the set of signal values using the selected prediction model; determining a number of days remaining to refill the coolant in the cooling system based on the depletion rate of the coolant in the cooling system ; and generating a warning signal on a graphical user interface, the warning signal indicative of a number of days remaining to refill the coolant in the cooling system . receiving a set of signal values from a sensing unit associated with the cooling system , wherein the set of signal values correspond to one or more parameters of the cooling system , characterised by further comprising determining a class associated with the set of signal values using a trained artificial intelligence model; selecting a prediction model capable of predicting a depletion rate of the coolant in the cooling system from a plurality of predetermined prediction models based on the class associated with the set of signal values; computing a depletion rate of the coolant in the cooling system based on the set of signal values using the selected prediction model; determining a number of days remaining to refill the coolant in the cooling system based on the depletion rate of the coolant in the cooling system ; and generating a warning signal on a graphical user interface, the warning signal indicative of a number of days remaining to refill the coolant in the cooling system .
Ship comprising - a hull and - a window or glass door mounted inside a span of the hull to stop up an outer wall of a cabin, wherein the window or glass door comprises a perimeter frame mountable within the span, a first fixed panel , integral with the frame, to stop up the lower part of the span, a second panel mounted on the frame for sliding vertically parallel (Y) to the first panel up to a position in which it stops up the top of the span, means for joining two surfaces which are comprised, respectively, in the second panel and the frame and which are facing each other in said position, so that the second panel and the frame adhere to each other in a hermetically sealed manner, wherein said means comprise a mechanism for moving the second panel along two perpendicular axes, thereby horizontally bringing the second panel closer towards the frame along a direction orthogonal to the one of relative sliding, so as to make said two panels adhere in a hermetically sealed manner on each other through a flexible gasket inserted therebetween. - a hull and - a window or glass door mounted inside a span of the hull to stop up an outer wall of a cabin, a perimeter frame mountable within the span, a first fixed panel , integral with the frame, to stop up the lower part of the span, a second panel mounted on the frame for sliding vertically parallel (Y) to the first panel up to a position in which it stops up the top of the span, means for joining two surfaces which are comprised, respectively, in the second panel and the frame and which are facing each other in said position, so that the second panel and the frame adhere to each other in a hermetically sealed manner, wherein said means comprise a mechanism for moving the second panel along two perpendicular axes, thereby horizontally bringing the second panel closer towards the frame along a direction orthogonal to the one of relative sliding, so as to make said two panels adhere in a hermetically sealed manner on each other through a flexible gasket inserted therebetween.
A combiner utilized in a multi-band base station system and including a plurality of first ports (P1-P4) assigned different frequency bands and a second port (Com) in connection with a common feeder cable, the combiner comprising: DC signal lines (310P1-310P4, 310C) branching from each of the plurality of first ports and the second port, the DC signal lines branching from the first ports being connected to the DC signal line branching from the second port; control signal lines (320P1-320P4, 320C) branching from each of the plurality of first ports and the second port; switching modules (312P1-312P4, 312C) provided on each of the DC signal lines branching from the first ports and the second port; modems (322P1-322P4, 322C) provided on each of the control signal lines to modulate or demodulate an input control signal; and a control unit configured to control switching of each of the switching modules according to an operation type of the combiner, wherein the operation type comprises a first type being responsive to signal inputs through at least some of the plurality of first ports and a second type being responsive to a signal input through the second port. DC signal lines (310P1-310P4, 310C) branching from each of the plurality of first ports and the second port, the DC signal lines branching from the first ports being connected to the DC signal line branching from the second port; control signal lines (320P1-320P4, 320C) branching from each of the plurality of first ports and the second port; switching modules (312P1-312P4, 312C) provided on each of the DC signal lines branching from the first ports and the second port; modems (322P1-322P4, 322C) provided on each of the control signal lines to modulate or demodulate an input control signal; and a control unit configured to control switching of each of the switching modules according to an operation type of the combiner, wherein the operation type comprises a first type being responsive to signal inputs through at least some of the plurality of first ports and a second type being responsive to a signal input through the second port.
A composition comprising: HFO-1234yf and optionally HFO-1234ze; HFC-125; and CFC-115 and 3,3,3-trifluoropropyne; wherein the total amount of and is ≥ 95 mass%, based on the total amount of - . HFO-1234yf and optionally HFO-1234ze; HFC-125; and CFC-115 and 3,3,3-trifluoropropyne;