mhurhangee/patent-ind-claim-en huggingface dataset:
A rodent whose genome comprises an endogenous Slc30a8 locus comprising a mutated Slc30a8 gene, wherein the mutated Slc30a8 gene comprises a nonsense mutation at the 3' end of the third exon of the Slc30a8 gene and results in the rodent having an enhanced capacity for insulin secretion relative to a rodent without the mutation.
An amplification circuit comprising two groups (A; B) of a same number (N) of several amplifiers (A(i); B(i)), all outputs of amplifiers of a first group being interconnected to a first output terminal (PAD1) of the amplification circuit, the outputs of amplifiers of a second group being distributed into two sub-assemblies of a same number of amplifiers, respectively interconnected to second (PAD2) and third (PAD3) output terminals of the amplification circuit.
A galley cart compartment , comprising: an interior compartment associated with an aircraft galley complex, the interior compartment bounded by at least a left sidewall , a right sidewall , and a cabin floor ; the galley cart compartment further comprising a galley cart insertable into and removable from the interior compartment along an axis of entry , the interior compartment configured to accommodate the galley cart; the galley cart comprising: an exterior housing including at least a left side , a right side , and an underside ; and a left-side plurality of casters and a right-side plurality of casters pivotably attached to the underside, each caster including a left wheel and a right wheel separated by a wheel gap; and a set of tracks proximate to the cabin floor and parallel to the axis of entry, the set of tracks comprising: a left track proximate to the left sidewall, the left track including a left guide rail configured for extending into at least one wheel gap of the left-side plurality of casters; and a right track proximate to the right sidewall, the right track including a right guide rail configured for extending into at least one wheel gap of the right-side plurality of casters. an interior compartment associated with an aircraft galley complex, the interior compartment bounded by at least a left sidewall , a right sidewall , and a cabin floor ; the galley cart compartment further comprising a galley cart insertable into and removable from the interior compartment along an axis of entry , the interior compartment configured to accommodate the galley cart; the galley cart comprising: an exterior housing including at least a left side , a right side , and an underside ; and a left-side plurality of casters and a right-side plurality of casters pivotably attached to the underside, each caster including a left wheel and a right wheel separated by a wheel gap; and an exterior housing including at least a left side , a right side , and an underside ; and a left-side plurality of casters and a right-side plurality of casters pivotably attached to the underside, each caster including a left wheel and a right wheel separated by a wheel gap; and a set of tracks proximate to the cabin floor and parallel to the axis of entry, the set of tracks comprising: a left track proximate to the left sidewall, the left track including a left guide rail configured for extending into at least one wheel gap of the left-side plurality of casters; and a right track proximate to the right sidewall, the right track including a right guide rail configured for extending into at least one wheel gap of the right-side plurality of casters. a left track proximate to the left sidewall, the left track including a left guide rail configured for extending into at least one wheel gap of the left-side plurality of casters; and a right track proximate to the right sidewall, the right track including a right guide rail configured for extending into at least one wheel gap of the right-side plurality of casters.
A method for bandwidth part configuration, comprising: sending a downlink transmission to a terminal device in a first bandwidth part, wherein the first bandwidth part is usable for sending a first control channel and a first data channel to the terminal device; and sending information about a second bandwidth part to the terminal device in a third bandwidth part, wherein the second bandwidth part is a bandwidth part to which the terminal device is to switch, and the second bandwidth part is usable for sending a second control channel and a second data channel to the terminal device, and the third bandwidth part is an access bandwidth part, or the third bandwidth part is comprised in one or more candidate operating bandwidth parts of the terminal device; wherein the first bandwidth part is different from the third bandwidth part. sending a downlink transmission to a terminal device in a first bandwidth part, wherein the first bandwidth part is usable for sending a first control channel and a first data channel to the terminal device; and sending information about a second bandwidth part to the terminal device in a third bandwidth part, wherein the second bandwidth part is a bandwidth part to which the terminal device is to switch, and the second bandwidth part is usable for sending a second control channel and a second data channel to the terminal device, and the third bandwidth part is an access bandwidth part, or the third bandwidth part is comprised in one or more candidate operating bandwidth parts of the terminal device; wherein the first bandwidth part is different from the third bandwidth part.
A medical device system comprising; - a medical device , comprising a force transferring part being a force transferring member , adapted to travel through an opening in the thoracic diaphragm and transfer force between the abdominal side of the thoracic diaphragm and the thoracic side of the thoracic diaphragm into the pericardium - a heart help device , and - an operation device , the medical device characterized in that the opening in the thoracic diaphragm continues into the pericardium (P) and said force transferring part comprises a first and second portion , wherein said first portion is adapted to be in connection with the operation device, said second portion is adapted to be in connection with the heart help device, and said force transferring part is adapted to transfer force from said operation device to said heart help device, and wherein said medical device further comprises a diaphragm contacting part adapted to be placed in contact with the thoracic diaphragm and thereby assist in the maintaining of the opening for allowing the force transferring part to pass through the thoracic diaphragm. - a medical device , comprising a force transferring part being a force transferring member , adapted to travel through an opening in the thoracic diaphragm and transfer force between the abdominal side of the thoracic diaphragm and the thoracic side of the thoracic diaphragm into the pericardium - a heart help device , and - an operation device , the medical device characterized in that the opening in the thoracic diaphragm continues into the pericardium (P) and said force transferring part comprises a first and second portion , wherein said first portion is adapted to be in connection with the operation device, said second portion is adapted to be in connection with the heart help device, and said force transferring part is adapted to transfer force from said operation device to said heart help device, and wherein said medical device further comprises a diaphragm contacting part adapted to be placed in contact with the thoracic diaphragm and thereby assist in the maintaining of the opening for allowing the force transferring part to pass through the thoracic diaphragm. the medical device characterized in that the opening in the thoracic diaphragm continues into the pericardium (P) and said force transferring part comprises a first and second portion , wherein said first portion is adapted to be in connection with the operation device, said second portion is adapted to be in connection with the heart help device, and said force transferring part is adapted to transfer force from said operation device to said heart help device, and wherein said medical device further comprises a diaphragm contacting part adapted to be placed in contact with the thoracic diaphragm and thereby assist in the maintaining of the opening for allowing the force transferring part to pass through the thoracic diaphragm.
A web funnel for condensing a fiber web, particularly on a draw frame, carding machine, or comber, having an inlet side implemented elongated in the X-direction at which the outspread fiber web made of individual fibers enters the web funnel and an outlet side spaced apart from the inlet side in the Z-direction, at which the fiber web exits the web funnel as a fiber sliver, having an outlet opening disposed on the outlet side , and having two guide surfaces disposed between the inlet side and outlet side and in each case adjacent to the outlet opening for the fiber web, in order to guide the fiber web flowing into the web funnel in the direction of the outlet opening , characterized in that at least one guide element is disposed in a region between the inlet side and the outlet opening limiting a component of the displacement of the fiber web in the X-direction and/or in the Y-direction, wherein the guide element is disposed for preventing the fibers from colliding with each other at least in the X-direction after the guide surfaces deflect the fiber web in the direction of the outlet opening .
A method for multicarrier-operation at a user equipment, UE, in a time division duplex, TDD, wireless communication system, comprising: receiving , from a base station, a downlink grant on a component carrier, CC, in a plurality of CCs configured for the UE, the downlink grant including a downlink assignment index, DAI, indicating a number of scheduled CCs, an identifier of each scheduled CC for the UE, and an explicit indication of which CCs in the plurality of configured CCs are scheduled in a particular subframe; determining the number of scheduled CCs and the identifier of each scheduled CC by detecting the DAI in the downlink grant; determining the number of downlink subframes in which the UE is scheduled based on the received downlink grant; determining acknowledgement/negative acknowledgement, ACK/NACK, information for a data transmission received on the scheduled CCs in the determined number of downlink subframes, based on the number of scheduled CCs, the identifier of each scheduled CC, and the number of downlink subframes in which the UE is scheduled; and sending the ACK/NACK information to the base station. receiving , from a base station, a downlink grant on a component carrier, CC, in a plurality of CCs configured for the UE, the downlink grant including a downlink assignment index, DAI, indicating a number of scheduled CCs, an identifier of each scheduled CC for the UE, and an explicit indication of which CCs in the plurality of configured CCs are scheduled in a particular subframe; determining the number of scheduled CCs and the identifier of each scheduled CC by detecting the DAI in the downlink grant; determining the number of downlink subframes in which the UE is scheduled based on the received downlink grant; determining acknowledgement/negative acknowledgement, ACK/NACK, information for a data transmission received on the scheduled CCs in the determined number of downlink subframes, based on the number of scheduled CCs, the identifier of each scheduled CC, and the number of downlink subframes in which the UE is scheduled; and sending the ACK/NACK information to the base station.
A method of obtaining polyepitopic protein, characterised in that : a) a blunt-ended DNA sequence encoding an epitope is cloned at a site recognised by Smal into a DNA vector containing a sequence, the amplifying module, encompassing two convergent DNA sequences recognised by Sapl and a DNA sequence found between them containing a site for cloning in an insert recognised by Smal, wherein the amplifying module contains a nucleotide sequence selected from: SEQ ID NO: 1, SEQ ID NO: 2, SEQ ID NO: 3, SEQ ID NO: 4, SEQ ID NO: 5 or SEQ ID NO: 6, preferably the amplifying module possesses the sequence: GCTCTTCACCCGGGCCCAGAAGAGC (SEQ ID NO: 11), b) the resulting vector is amplified in a bacterial host, isolated and digested with Sapl, and then the fragment containing the DNA sequence encoding the epitope is isolated, which is modified such that it becomes equipped with single-stranded sticky ends facilitating directional ligation of the insert to the concatemer, c) the isolated fragment is autoligated, d) the autoligation product is cloned at a site recognised by SapI into said DNA vector as defined in point a), e) the resulting vector is used to transform a bacterial host and then the polyepitopic protein is expressed and isolated, wherein in order to increase the size of the polyepitopic protein, stages from b) to d) are repeated prior to realising stage e), a concatenated DNA sequences encoding the epitopes are present in the resulting vector. a) a blunt-ended DNA sequence encoding an epitope is cloned at a site recognised by Smal into a DNA vector containing a sequence, the amplifying module, encompassing two convergent DNA sequences recognised by Sapl and a DNA sequence found between them containing a site for cloning in an insert recognised by Smal, wherein the amplifying module contains a nucleotide sequence selected from: SEQ ID NO: 1, SEQ ID NO: 2, SEQ ID NO: 3, SEQ ID NO: 4, SEQ ID NO: 5 or SEQ ID NO: 6, preferably the amplifying module possesses the sequence: GCTCTTCACCCGGGCCCAGAAGAGC (SEQ ID NO: 11), b) the resulting vector is amplified in a bacterial host, isolated and digested with Sapl, and then the fragment containing the DNA sequence encoding the epitope is isolated, which is modified such that it becomes equipped with single-stranded sticky ends facilitating directional ligation of the insert to the concatemer, c) the isolated fragment is autoligated, d) the autoligation product is cloned at a site recognised by SapI into said DNA vector as defined in point a), e) the resulting vector is used to transform a bacterial host and then the polyepitopic protein is expressed and isolated,
Roof arrangement for a vehicle, in particular for a motor vehicle, having a vehicle roof which comprises at least one roof frame , in which at least one opening is formed, and at least one glass roof element , in particular a panoramic glass roof or glass sliding roof element, which extends over the opening , the roof frame comprising at least one cross member extending transversely to the longitudinal extension of the vehicle roof , and having a shaped headliner which extends at least over the cross member in such a way that the edge of the shaped headliner is opposite the glass roof element , an operating unit of the vehicle which can be operated by a user being arranged in the channel between the glass roof element and the shaped headliner , and the operating unit comprising a retainer , an operating device and a decorative panel , characterized in that the operating device is arranged on the retainer and is connected to the retainer , and in that the decorative panel is fastened to the retainer and covers the channel with the operating device arranged therein, the decorative panel comprising an opening for the operating device .
A computer-implemented method for use in a material decomposition procedure for application to a set of dual-energy CT projection data acquired over a CT scan period, the method comprising: obtaining an indication of a variation range of a defined X-ray source parameter over the course of the CT scan period; characterized in that the method further comprises: accessing a datastore storing one or more of sets of first lookup tables (LUTs), each first LUT defining a mapping from CT projection data values to corresponding material data values, and each respective set associated in the datastore with a particular variation range of the X-ray source parameter; performing a selection procedure comprising selecting a set of the LUTs in the datastore, wherein the selection is determined based on the obtained range for the X-ray source parameter; defining a linear combination of the first LUTs selected in the selection procedure, the weightings for each of the LUTs in the linear combination being dependent at least in part on instantaneous values of the X-ray source parameter over the scan period, the linear combination for application to the CT projection data set for performing a material decomposition procedure; generating a data output representative of the defined linear combination. accessing a datastore storing one or more of sets of first lookup tables (LUTs), each first LUT defining a mapping from CT projection data values to corresponding material data values, and each respective set associated in the datastore with a particular variation range of the X-ray source parameter; performing a selection procedure comprising selecting a set of the LUTs in the datastore, wherein the selection is determined based on the obtained range for the X-ray source parameter; defining a linear combination of the first LUTs selected in the selection procedure, the weightings for each of the LUTs in the linear combination being dependent at least in part on instantaneous values of the X-ray source parameter over the scan period, the linear combination for application to the CT projection data set for performing a material decomposition procedure; generating a data output representative of the defined linear combination.
A power electronic assembly comprising a power electronic module incorporating multiple of semiconductor power electronic switch components, the power electronic module comprising a base plate , a vapour chamber having multiple of condenser pipes (14, 15; 34, 35, 36) in fluid communication with the vapour chamber , the vapour chamber and the multiple of condenser pipes forming a closed volume and enclosing a working fluid, a mounting plate having an indent for receiving the vapour chamber and multiple of apertures for receiving the multiple of condenser pipes, wherein the power electronic module is attached to the mounting plate to transfer heat from the base plate of the power electronic module to the vapour chamber , characterized in that the assembly comprises at least two vapour chambers which are connected with one or more connecting pipes , and each of the vapour chambers comprises multiple of condenser pipes, the at least two vapour chambers, the one or more connecting pipes and the multiple of condenser pipes forming a closed volume and enclosing a working fluid.
Measuring sleeve for measuring a force in an anchor pile which has at least two anchor rods , wherein the measuring sleeve comprises a sleeve-shaped base body with a receiving hole , wherein - a first internal thread extends from one side and a second internal thread extends from a second side into the base body , - the internal threads are each designed for screwing in a threaded section of an anchor rod , - between the first internal thread and the second internal thread an annular central section is designed which is free from a thread, and - on the central section at least one force measuring element is arranged which is axially spaced apart from the internal threads , characterized in that on its external side and its internal side the central section is of smoothsurfaced design and is designed with the same wall thickness. - a first internal thread extends from one side and a second internal thread extends from a second side into the base body , - the internal threads are each designed for screwing in a threaded section of an anchor rod , - between the first internal thread and the second internal thread an annular central section is designed which is free from a thread, and - on the central section at least one force measuring element is arranged which is axially spaced apart from the internal threads ,
A sling for handling, in particular transporting, loads, having a reinforcing portion , wherein the reinforcing portion consists of a two-layer strap portion , characterized in that a rigid interlayer made from a plastics material is arranged between the two strap layers and connected to the two strap layers .
A back-illuminated solid-state imaging element comprising: a semiconductor substrate which has a front surface and a back surface provided with a recess , and in which a thinned section which is a bottom section of the recess is the imaging area; a signal read-out circuit formed on the front surface of the semiconductor substrate; a boron layer formed on at least the back surface of the semiconductor substrate and a lateral surface of the recess; a metal layer formed on the boron layer, and provided with an opening opposing the bottom surface of the recess; and an anti-reflection layer formed on the bottom surface of the recess. a semiconductor substrate which has a front surface and a back surface provided with a recess , and in which a thinned section which is a bottom section of the recess is the imaging area; a signal read-out circuit formed on the front surface of the semiconductor substrate; a boron layer formed on at least the back surface of the semiconductor substrate and a lateral surface of the recess; a metal layer formed on the boron layer, and provided with an opening opposing the bottom surface of the recess; and an anti-reflection layer formed on the bottom surface of the recess.
Method for detecting a short circuit in a power supply module of an electrical device , in particular a DC electrical device, the power supply module comprising an input filter capacitor that is arranged in parallel with the electrical device , characterized in that the method consists in detecting the discharge current (I cc ) delivered by the input filter capacitor following a short circuit in the power supply module , the discharge current (I cc ) being detected by measuring a voltage (V cc ) across the terminals of a resistive element that is arranged in the discharge circuit of the input filter capacitor , the resistive element consisting of a protective component for protecting the input filter capacitor from a reversal in the polarity of the power supply current.
Fluid cleaning element (36; 136) of a fluid cleaning system for cleaning liquid fluid, featuring at least one cleaning medium (38; 138) which at least partially delimits at least one element interior space , at least one end body which is disposed at an axial front face, relative to an imaginary axis , on the fluid cleaning element (36; 136), and at least one elastic, annular sealing element , which is disposed on a radially outer circumferential side of the at least one end body with respect to the imaginary axis , wherein the end body features at least one end body holding contour for the sealing element , said contour extending circumferentially at least section-wise contiguously on a radially outer circumferential side of the end body with respect to the axis , wherein the sealing element features on its radially inner circumferential side with respect to the axis a seal holding contour which rests at least section-wise against the end body holding contour of the end body , wherein the sealing element features at least one sealing surface extending at least across a portion of the radially outer circumferential side of the sealing element with respect to the axis , characterized in that the end body holding contour features at least one projection extending at least partially circumferentially and radially outwardly with respect to the axis and tapering from radially inwardly to radially outwardly, and the seal holding contour features at least one V-shaped indentation extending at least partially circumferentially and radially outwardly with respect to the axis , wherein the end body holding contour engages at least partially into the seal holding contour .