mhurhangee/patent-ind-claim-en huggingface dataset:
A multi-dose fluid delivery system comprising: a multi-use fluid path set having a first end configured for fluidly connecting to at least one fluid source and a second end configured for fluidly connecting to a fluid injection apparatus ; characterized in a plurality of single-use fluid path sets connected in a series to define a fluid path extending from a first single-use fluid path set to a last single-use fluid path set, each of the plurality of single-use fluid path sets having a first end and a second end, wherein the first end of the first single-use fluid path set is configured for fluidly connecting to a patient delivery line , wherein the second end of the last single-use fluid path set is configured for fluidly connecting to the fluid injection apparatus ; and wherein the second end of the first single-use fluid path set is removable from the series of the plurality of single-use fluid path sets to expose the first end of the next single-use fluid path set to which the patient delivery line is then connectable. a multi-use fluid path set having a first end configured for fluidly connecting to at least one fluid source and a second end configured for fluidly connecting to a fluid injection apparatus ; characterized in a plurality of single-use fluid path sets connected in a series to define a fluid path extending from a first single-use fluid path set to a last single-use fluid path set, each of the plurality of single-use fluid path sets having a first end and a second end, wherein the first end of the first single-use fluid path set is configured for fluidly connecting to a patient delivery line , wherein the second end of the last single-use fluid path set is configured for fluidly connecting to the fluid injection apparatus ; and wherein the second end of the first single-use fluid path set is removable from the series of the plurality of single-use fluid path sets to expose the first end of the next single-use fluid path set to which the patient delivery line is then connectable.
A method for detecting an interruption of an active conductor (L+, L-) in an ungrounded direct-voltage power supply system , the method comprising the steps of: - connecting an ohmic minimal load as close as possible to the consumer to generate a minimal load current (I min ) on the active conductors (L+, L-), - determining a current load current (I), - checking whether the current load current (I) falls short of the value of the minimal load current (I min ), and signaling a shortfall. - connecting an ohmic minimal load as close as possible to the consumer to generate a minimal load current (I min ) on the active conductors (L+, L-), - determining a current load current (I), - checking whether the current load current (I) falls short of the value of the minimal load current (I min ), and signaling a shortfall.
A composition comprising a first multilayer film comprising a plurality of alternating, oppositely charged polyelectrolyte layers, wherein one of the polyelectrolyte layers in the multilayer film comprises a first antigenic polyelectrolyte, wherein the first antigenic polyelectrolyte comprises a modified Plasmodium falciparum circumsporozoite T* epitope of SEQ ID NO: 5, and wherein the polyelectrolytes in the multilayer film comprise a polycationic material or a polyanionic material having a molecular weight of greater than 1,000 and at least 5 charges per molecule. a first multilayer film comprising a plurality of alternating, oppositely charged polyelectrolyte layers, wherein one of the polyelectrolyte layers in the multilayer film comprises a first antigenic polyelectrolyte, wherein the first antigenic polyelectrolyte comprises a modified Plasmodium falciparum circumsporozoite T* epitope of SEQ ID NO: 5, and wherein the polyelectrolytes in the multilayer film comprise a polycationic material or a polyanionic material having a molecular weight of greater than 1,000 and at least 5 charges per molecule.
Method for actuating a magnetic resonance imaging system for generating magnetic resonance image data (BD) of an object under examination (P) with which magnetic resonance raw data (RD) is acquired, wherein the method has at least one diffusion contrast pulse sequence with - an excitation process, wherein an RF excitation pulse is generated, - a readout process for the acquisition of magnetic resonance raw data (RD), which comprises the reception of RF signals, - a step for diffusion-sensitisation using a diffusion contrast gradient pulse sequence (GDW), wherein - the diffusion contrast gradient pulse sequence (GDW) comprises an uneven number of 2n+1 diffusion contrast gradient pulses switched in chronological succession, where n is a natural number, - the sum of the zero gradient moments (m 0 ) of the diffusion contrast gradient pulses has the value zero, - the sum of the first gradient moments (m 1 ) of the diffusion contrast gradient pulses has the value zero, characterised in that the diffusion contrast gradient pulse sequence (GDW) comprises precisely one RF refocusing pulse , wherein the one RF refocusing pulse is switched between two of the diffusion contrast gradient pulses . - an excitation process, wherein an RF excitation pulse is generated, - a readout process for the acquisition of magnetic resonance raw data (RD), which comprises the reception of RF signals, - a step for diffusion-sensitisation using a diffusion contrast gradient pulse sequence (GDW), wherein - the diffusion contrast gradient pulse sequence (GDW) comprises an uneven number of 2n+1 diffusion contrast gradient pulses switched in chronological succession, where n is a natural number, - the sum of the zero gradient moments (m 0 ) of the diffusion contrast gradient pulses has the value zero, - the sum of the first gradient moments (m 1 ) of the diffusion contrast gradient pulses has the value zero, characterised in that the diffusion contrast gradient pulse sequence (GDW) comprises precisely one RF refocusing pulse , wherein the one RF refocusing pulse is switched between two of the diffusion contrast gradient pulses . - the diffusion contrast gradient pulse sequence (GDW) comprises an uneven number of 2n+1 diffusion contrast gradient pulses switched in chronological succession, where n is a natural number, - the sum of the zero gradient moments (m 0 ) of the diffusion contrast gradient pulses has the value zero, - the sum of the first gradient moments (m 1 ) of the diffusion contrast gradient pulses has the value zero,
A lead frame , comprising: a die pad comprising a die attach surface; a row of two or more leads that extend away from a first side of the die pad; and a peripheral structure disposed opposite the first side of the die pad and connected to each lead from the row of two or more leads , wherein a first outermost lead of the row is continuously connected to the first side of the die pad, wherein a second outermost lead of the row comprises an interior end that faces and is spaced apart from the first side of the die pad, wherein a width of the second lead in a central span of the second lead is greater than the width of the second lead in an interior span of the second lead and in an outer span of the second lead , the interior span of the second lead separating the central span of the second lead from the interior end of the second lead , the outer span of the second lead separating the central span of the second lead from the peripheral structure , wherein the second lead comprises an inner edge side that faces the first lead and extends from the interior end of the second lead to the peripheral structure , characterized in that the inner edge side of the second lead is closer to the first lead in the central span of the second lead than in the interior and outer spans of the second lead . a die pad comprising a die attach surface; a row of two or more leads that extend away from a first side of the die pad; and a peripheral structure disposed opposite the first side of the die pad and connected to each lead from the row of two or more leads , wherein a first outermost lead of the row is continuously connected to the first side of the die pad, wherein a second outermost lead of the row comprises an interior end that faces and is spaced apart from the first side of the die pad, wherein a width of the second lead in a central span of the second lead is greater than the width of the second lead in an interior span of the second lead and in an outer span of the second lead , the interior span of the second lead separating the central span of the second lead from the interior end of the second lead , the outer span of the second lead separating the central span of the second lead from the peripheral structure , wherein the second lead comprises an inner edge side that faces the first lead and extends from the interior end of the second lead to the peripheral structure , characterized in that the inner edge side of the second lead is closer to the first lead in the central span of the second lead than in the interior and outer spans of the second lead .
Speed limiter system for an elevator with a car , comprising a speed limiter riding on a car , a non-rigid cable for stationary tensioning along the travel path of a car between two fixed points where the lower and upper ends of the non-rigid cable are anchored, two spring elements that hold the non-rigid cable floatingly tensioned between them, characterized in that the speed limiter system comprises an actuator for attachment to or integration into the non-rigid cable and a switch actuated by the actuator , and the actuator is designed such that the non-rigid cable , when installed and ready for operation, can move a distance of +/- Δ L relative to the contact back and forth without actuating the contact, and is designed to actuate the contact when either a tensile force occurs in the non-rigid cable that displaces the non-rigid cable in the region of the actuator by a distance greater than - Δ L or when the non-rigid cable relaxes to a degree that it displaces by a distance greater than + Δ L.
A component for a vehicle wash system, comprising: a rotatable hub portion having an outer surface and an axis of rotation; a plurality of media elements secured to said hub portion; at least one translucent portion disposed on said outer surface of said hub portion between adjacent media elements ; at least one illumination element for illuminating said at least one translucent portion such that said illuminated translucent portion is configured to be seen while said hub portion rotates. a rotatable hub portion having an outer surface and an axis of rotation; a plurality of media elements secured to said hub portion; at least one translucent portion disposed on said outer surface of said hub portion between adjacent media elements ; at least one illumination element for illuminating said at least one translucent portion such that said illuminated translucent portion is configured to be seen while said hub portion rotates.
A method of making a panel assembly , the method comprising the steps of: a. forming a thermoplastic panel , b. placing a thermoset portion into a pocket in a mold, c. placing an attachment member into the pocket in the mold, d. positioning the thermoplastic panel in the mold, e. cooling the thermoplastic panel while heating the thermoset portion to flow at least a portion of the thermoset portion into openings defined in the thermoplastic panel, and f. cooling the panel assembly so that the thermoset portion hardens, thereby securing the attachment member to the thermoplastic panel. a. forming a thermoplastic panel , b. placing a thermoset portion into a pocket in a mold, c. placing an attachment member into the pocket in the mold, d. positioning the thermoplastic panel in the mold, e. cooling the thermoplastic panel while heating the thermoset portion to flow at least a portion of the thermoset portion into openings defined in the thermoplastic panel, and f. cooling the panel assembly so that the thermoset portion hardens, thereby securing the attachment member to the thermoplastic panel.
Method for layer-wise additive manufacturing of a shaped body made up of slices of processed layers, said method comprising the steps: creating a layer of a slurry, said slurry including binder, a dispersing medium and a particulate filler material, the particulate filler material being a ceramic or glass-ceramic powder, solidifying the slurry layer, directing electromagnetic radiation to the solidified layer for processing it by debinding and/or sintering, and repeating the above-mentioned steps to successively build the shaped body, characterized in that said creating a slurry layer is performed by a laser induced forward transfer (LIFT) process utilizing a laser to direct laser beam pulses to act on a coating of slurry on a carrier to transfer droplets of slurry to a receptor surface to create the slurry layer which is then processed further by above-mentioned steps of solidifying, and debinding and/or sintering. creating a layer of a slurry, said slurry including binder, a dispersing medium and a particulate filler material, the particulate filler material being a ceramic or glass-ceramic powder, solidifying the slurry layer, directing electromagnetic radiation to the solidified layer for processing it by debinding and/or sintering, and repeating the above-mentioned steps to successively build the shaped body, characterized in that said creating a slurry layer is performed by a laser induced forward transfer (LIFT) process utilizing a laser to direct laser beam pulses to act on a coating of slurry on a carrier to transfer droplets of slurry to a receptor surface to create the slurry layer which is then processed further by above-mentioned steps of solidifying, and debinding and/or sintering.
Device for centring belt reels accommodating an electrical component, of differing diameters, for an installation for the storage, inputting, and outputting of belt reels , wherein in each case one of the belt reels can be laid with a flat outer side on a flat horizontal contact surface of the device in an input region, wherein - the device comprises a stop element arranged above the contact surface for the loosely placed belt reel , - the stop element comprises perpendicular side walls open in a V-shape towards the input region, which form the contact surfaces for the belt reel , and - the contact surface can be displaced relative to the stop element in such a way that the belt reel passes between the side walls , characterized in that - an optical sensor is provided for detecting the location of the reel edge of the belt reel which is in contact with the side walls . - the device comprises a stop element arranged above the contact surface for the loosely placed belt reel , - the stop element comprises perpendicular side walls open in a V-shape towards the input region, which form the contact surfaces for the belt reel , and - the contact surface can be displaced relative to the stop element in such a way that the belt reel passes between the side walls , characterized in that - an optical sensor is provided for detecting the location of the reel edge of the belt reel which is in contact with the side walls .
A fuel and control system for a nuclear reactor , comprising: - a control rod assembly , - a drive assembly , which is attached to the control rod assembly for reactivity control, and - a fuel unit , characterized by a frame , which attaches the drive assembly to the fuel unit and provides a space for reactivity control movement of the control rod assembly so that the frame , the fuel unit , the drive assembly and the control rod assembly are integrated as one unit, and so that the fuel and control system is configured to be loaded into and unloaded out of the nuclear reactor as one unit. - a control rod assembly , - a drive assembly , which is attached to the control rod assembly for reactivity control, and - a fuel unit ,
A broadcast device for wirelessly broadcasting information pertaining to a first aircraft , the broadcast device comprising: - a positioning device configured to determine a position (P1) of the broadcast device , - a control unit configured to: ∗ receive the position (P1) as determined by the positioning device , and ∗ generate a data packet (D1) comprising the received position (P1) or values indicative thereof, and wherein the broadcast device further comprises - a radio transmitter configured to receive the generated data packet (D1) and wirelessly broadcast the received data packet (D1), wherein the broadcasted data packet (D1) is indicative of the to-be-broadcasted information, characterized in that the control unit is configured to generate, at a time T k with k being a positive natural number, a current identifier (ID1 k ) of the broadcast device based on a randomly obtained number (RON k-1 ) and based on a previous identifier (ID1 k-1 ) as previously, at a prior time T k-1 , generated by the control unit , and in that the control unit is configured to generate the data packet (D1) such that the data packet (D1) comprises the generated current identifier (ID1 k ) of the broadcast device or values indicative thereof. - a positioning device configured to determine a position (P1) of the broadcast device , - a control unit configured to: ∗ receive the position (P1) as determined by the positioning device , and ∗ generate a data packet (D1) comprising the received position (P1) or values indicative thereof, and ∗ receive the position (P1) as determined by the positioning device , and ∗ generate a data packet (D1) comprising the received position (P1) or values indicative thereof, and wherein the broadcast device further comprises - a radio transmitter configured to receive the generated data packet (D1) and wirelessly broadcast the received data packet (D1), - a radio transmitter configured to receive the generated data packet (D1) and wirelessly broadcast the received data packet (D1), wherein the broadcasted data packet (D1) is indicative of the to-be-broadcasted information, characterized in that the control unit is configured to generate, at a time T k with k being a positive natural number, a current identifier (ID1 k ) of the broadcast device based on a randomly obtained number (RON k-1 ) and based on a previous identifier (ID1 k-1 ) as previously, at a prior time T k-1 , generated by the control unit , and in that the control unit is configured to generate the data packet (D1) such that the data packet (D1) comprises the generated current identifier (ID1 k ) of the broadcast device or values indicative thereof.
Computer-implemented method for characterizing a wafer patterned using at least one lithography step, • wherein at least one parameter characteristic of the patterned wafer is ascertained on the basis of a plurality of measurements of the intensity of electromagnetic radiation after the diffraction thereof at the patterned wafer ; • wherein the at least one parameter is ascertained on the basis of intensity values measured during these intensity measurements for respectively different combinations of wavelength, polarization and/or order of diffraction, and also on the basis of correspondingly calculated intensity values, with a mathematical optimization method being applied; • wherein the ascertainment of the at least one parameter prior to the application of a mathematical optimization method comprises a comparison of intensity values obtained in the intensity measurements with intensity values stored in at least one database, wherein in this database an associated intensity spectrum is respectively assigned to a plurality of structures ; characterized in that a localization of structures respectively suitable for determining a parameter on the wafer is effected on the basis of this comparison with intensity values stored in the at least one database. • wherein at least one parameter characteristic of the patterned wafer is ascertained on the basis of a plurality of measurements of the intensity of electromagnetic radiation after the diffraction thereof at the patterned wafer ; • wherein the at least one parameter is ascertained on the basis of intensity values measured during these intensity measurements for respectively different combinations of wavelength, polarization and/or order of diffraction, and also on the basis of correspondingly calculated intensity values, with a mathematical optimization method being applied; • wherein the ascertainment of the at least one parameter prior to the application of a mathematical optimization method comprises a comparison of intensity values obtained in the intensity measurements with intensity values stored in at least one database, wherein in this database an associated intensity spectrum is respectively assigned to a plurality of structures ;
An actuation mechanism comprising: a first jaw rotatable about a jaw axis and comprising a first jaw engagement portion, a second jaw rotatable about the jaw axis and comprising a second jaw engagement portion, and a driver rotatable about a drive axis parallel to the jaw axis and comprising a first drive engagement portion and a second drive engagement portion; wherein the first jaw engagement portion and the first drive engagement portion are slidably engageable with one another and the second jaw engagement portion and the second drive engagement portion are slidably engageable with one another; whereby, when the first jaw engagement portion is engaged with the first drive engagement portion and the second jaw engagement portion is engaged with the second drive engagement portion, rotation of the driver about the drive axis causes rotation of the first jaw in a first sense and the second jaw in an opposite sense, wherein one of the first jaw engagement portion and the first drive engagement portion comprises a first pin , and the other one comprises a first radially extending slot ; and one of the second jaw engagement portion and the second drive engagement portion comprises a second pin , and the other one comprises a second radially extending slot . a first jaw rotatable about a jaw axis and comprising a first jaw engagement portion, a second jaw rotatable about the jaw axis and comprising a second jaw engagement portion, and a driver rotatable about a drive axis parallel to the jaw axis and comprising a first drive engagement portion and a second drive engagement portion; wherein the first jaw engagement portion and the first drive engagement portion are slidably engageable with one another and the second jaw engagement portion and the second drive engagement portion are slidably engageable with one another; whereby, when the first jaw engagement portion is engaged with the first drive engagement portion and the second jaw engagement portion is engaged with the second drive engagement portion, rotation of the driver about the drive axis causes rotation of the first jaw in a first sense and the second jaw in an opposite sense, wherein one of the first jaw engagement portion and the first drive engagement portion comprises a first pin , and the other one comprises a first radially extending slot ; and one of the second jaw engagement portion and the second drive engagement portion comprises a second pin , and the other one comprises a second radially extending slot .