mhurhangee/ep-ind-claims huggingface dataset:
A device (100, 800, 900) for regulating blood pressure between a patient's left atrium and right atrium, the device comprising: a stent (110, 910) comprising a neck region (104, 904) and first (102, 902) and second (106, 906) flared end regions, the neck region (104, 904) disposed between the first and second end regions and configured to engage the fossa ovalis of the patient's atrial septum; a one-way tissue valve (130, 830, 930) having an outlet coupled to a first portion of the first flared end region and an inlet coupled to a second portion of the first flared end region proximal to the neck region (104, 904), the valve (130, 830, 930) configured to shunt blood from the left atrium to the right atrium when blood pressure in the left atrium exceeds blood pressure in the right atrium, and a biocompatible material (120, 920) disposed on the neck region (104, 904) and the second flared end region (106, 906), but not on the first portion of the first flared end region (102, 902). a stent (110, 910) comprising a neck region (104, 904) and first (102, 902) and second (106, 906) flared end regions, the neck region (104, 904) disposed between the first and second end regions and configured to engage the fossa ovalis of the patient's atrial septum; a one-way tissue valve (130, 830, 930) having an outlet coupled to a first portion of the first flared end region and an inlet coupled to a second portion of the first flared end region proximal to the neck region (104, 904), the valve (130, 830, 930) configured to shunt blood from the left atrium to the right atrium when blood pressure in the left atrium exceeds blood pressure in the right atrium, and a biocompatible material (120, 920) disposed on the neck region (104, 904) and the second flared end region (106, 906), but not on the first portion of the first flared end region (102, 902).
A CdTe based single crystal comprising: a precipitate having a particle size of less than 0.1 μm obtained from an analysis by a light scattering tomography method wherein a precipitate having a particle size of 0.1 μm or more obtained from the analysis by the light scattering tomography method is not detected.
Heat exchanger for an induction charging device of a motor vehicle, - having two base plates (2, 3) permanently connected to one another which form or delimit an integral heat exchanger housing and a flow duct through which a flow path or a heat exchanger fluid runs, - wherein the flow duct has duct passages (8, 9) along the flow path, through which successively heat exchanger fluid can flow, which have respectively a free flow cross-section (13, 14) oriented transversely with regard to the flow path, - wherein flow cross-sections of first duct passages of these duct passages (8, 9) are smaller in area than flow cross-sections of second duct passages of these duct passages (8, 9) and - having a flow guide arrangement which are inset completely into the flow duct and through which heat exchanger fluid can flow, for conducting the heat exchanger fluid, characterized in that - the base plates (2, 3) are made from a metallic material. - having two base plates (2, 3) permanently connected to one another which form or delimit an integral heat exchanger housing and a flow duct through which a flow path or a heat exchanger fluid runs, - wherein the flow duct has duct passages (8, 9) along the flow path, through which successively heat exchanger fluid can flow, which have respectively a free flow cross-section (13, 14) oriented transversely with regard to the flow path, - wherein flow cross-sections of first duct passages of these duct passages (8, 9) are smaller in area than flow cross-sections of second duct passages of these duct passages (8, 9) and - having a flow guide arrangement which are inset completely into the flow duct and through which heat exchanger fluid can flow, for conducting the heat exchanger fluid, - the base plates (2, 3) are made from a metallic material.
Method for batchwise transfer of at least one type of individual products into at least one type of containers receiving a certain number of individual products by means of a robotic line containing at least two insertion robots (4a, 4b, 4c), wherein the individual products are transported irregularly at an inlet of the robotic line in order to grip these individually in a transfer region of the robotic line and to transfer these into containers and wherein the individual products and the containers are transported in the same flow on at least one product belt (6; 6a, 6b, 6c) and on at least one container belt (7; 7a, 7b, 7c), characterised in that each product belt (6; 6a, 6b, 6c) and each container belt (7; 7a, 7b, 7c) is moved at speeds which are, in particular for each batch, constant relative to one another; a counting position is determined for each product belt (6; 6a, 6b, 6c) in such a way that an individual product counted at the counting position (8a, 8b, 8c) and not transferred reaches the outlet from the transfer region of the robotic line at the same time as a container channelled into the inlet of the transfer region of the robotic line on the container belt or on the container belt (7a, 7b, 7c) which moves the slowest; and the individual products on the product belt (6; 6a, 6b, 6c) conducting them are counted at the counting position (8a, 8b, 8c) associated with this product belt (6; 6a, 6b, 6c).
A method for processing a live tissue sample of aggregated cells from a subject or cancer cells from a solid tumor comprising: a) disaggregating and dispersing an aqueous solution containing live aggregated cells obtained from a subject or cancer cells from a solid tumor into at least one test aliquot in a first isolated chamber, wherein the cells are dispersed using a predetermined amount of mechanical shear stress, from 100 to 800 dyne/cm 2; b) optionally purifying the aliquot to increase the percentage of target cells relative to other contaminating cell types by removing the contaminating cells; c) distributing the live cells into one or more second isolated chambers for analysis in the absence of cell culture; and characterized in that the method further comprises the step d) analyzing the distributed cells by exposing the cells to at least one test reagent to produce a measureable quantitative or qualitative effect on one or more of a target ex vivo biomarker or a target biomolecule, wherein the effect is identified by a measurement of an agonistic or antagonistic effect on a cellular pathway; wherein the cells are processed in a live state with minimal cellular activation or stress. a) disaggregating and dispersing an aqueous solution containing live aggregated cells obtained from a subject or cancer cells from a solid tumor into at least one test aliquot in a first isolated chamber, wherein the cells are dispersed using a predetermined amount of mechanical shear stress, from 100 to 800 dyne/cm 2; b) optionally purifying the aliquot to increase the percentage of target cells relative to other contaminating cell types by removing the contaminating cells; c) distributing the live cells into one or more second isolated chambers for analysis in the absence of cell culture; and characterized in that the method further comprises the step d) analyzing the distributed cells by exposing the cells to at least one test reagent to produce a measureable quantitative or qualitative effect on one or more of a target ex vivo biomarker or a target biomolecule, wherein the effect is identified by a measurement of an agonistic or antagonistic effect on a cellular pathway; wherein the cells are processed in a live state with minimal cellular activation or stress.
A method for producing an unsaturated organic compound represented by the formula: (Y 1) m-1 -R 1 -R 2 -(Y 2) n-1 wherein R 1 represents a substituted or unsubstituted m-valent aromatic group, a substituted or unsubstituted m-valent heteroaromatic group, or a substituted or unsubstituted m-valent aliphatic hydrocarbon group having at least one double bond, R 2 represents a substituted or unsubstituted n-valent aromatic group, a substituted or unsubstituted n-valent heteroaromatic group, or a substituted or unsubstituted n-valent aliphatic hydrocarbon group having at least one double bond, m represents 1 or 2, n represents 1 or 2, with the proviso that when m is 2, n is 1, Y 1 represents R 2 or X 1, Y 2 represents R 1 or B(X 2) 2, X 1 independently represents a leaving group bonded to a sp 2 carbon, X 2 independently represents a hydroxyl group or an alkoxy group, or two X 2 are bonded to a ring containing a boron atom, and a group represented by -B(X 2) 2 is bonded to a sp 2 carbon, which comprises reacting a compound represented by the formula: R 1 (X 1) m wherein R 1, X 1 and m are the same as defined above, with a compound represented by the formula: R 2 {B(X 2) 2} n wherein R 2, X 2 and n are the same as defined above, in the presence of (a) at least one nickel compound selected from the group consisting of a nickel carboxylate, nickel nitrate and a nickel halide, (b) a phosphine compound represented by the formula: wherein R 3 is independently in each occurrence a C3-C7 alkyl group or a C3-C7 cycloalkyl group, and p represents 2, 3 or 4, (c) at least one amine selected from the group consisting of a primary amine and an amine represented by the formula: wherein R 4 is independently in each occurrence a substituted or unsubstituted C1-C10 alkyl group, and r represents an integer of 1 to 6, and (d) an inorganic base. (a) at least one nickel compound selected from the group consisting of a nickel carboxylate, nickel nitrate and a nickel halide, (b) a phosphine compound represented by the formula: wherein R 3 is independently in each occurrence a C3-C7 alkyl group or a C3-C7 cycloalkyl group, and p represents 2, 3 or 4, (c) at least one amine selected from the group consisting of a primary amine and an amine represented by the formula: wherein R 4 is independently in each occurrence a substituted or unsubstituted C1-C10 alkyl group, and r represents an integer of 1 to 6, and (d) an inorganic base.
Method for machining a cylindrical workpiece involving cutting into the outer layer, or layers, in a circumferential direction of the cylindrical workpiece, comprising the steps: arrangement of a tool carrier with a tool on the cylindrical workpiece, application of a traction means to the tool carrier, transmission of the force exerted on the traction means to the tool, in order to exert a movement of the tool carrier around the workpiece, characterized by release of the traction means from the tool carrier and multiple repetition of a renewed application of the traction means and transmission of the force exerted on the traction means to the tool and also release of the traction means for the purpose of machining the workpiece.
A method performed by a radio device, the method comprising: receiving a plurality of Protocol Data Units, PDUs, of a PDU sequence over a radio interface; detecting that a PDU of the sequence of the received PDUs is missing; for each of the received PDUs, identifying which Service Data Unit(s), SDU, it relates to; based on said identifying, determining that a complete SDU is obtainable from one or several PDUs of the received PDUs, which one or several PDUs are later in the sequence of the received PDUs than the missing PDU; obtaining the complete SDU from said one or several PDUs; performing a packet inspection of the obtained complete SDU to determine the type of data it carries; based on the performed packet inspection, determining that the complete SDU fulfils a predetermined criterion, wherein the predefined criterion is that the complete SDU contains data which is insensitive to out-of-sequence delivery; and delivering the complete SDU which fulfils the predetermined criterion to a higher layer in the radio device, before receiving a retransmission of the PDU which is missing. receiving a plurality of Protocol Data Units, PDUs, of a PDU sequence over a radio interface; detecting that a PDU of the sequence of the received PDUs is missing; for each of the received PDUs, identifying which Service Data Unit(s), SDU, it relates to; based on said identifying, determining that a complete SDU is obtainable from one or several PDUs of the received PDUs, which one or several PDUs are later in the sequence of the received PDUs than the missing PDU; obtaining the complete SDU from said one or several PDUs; performing a packet inspection of the obtained complete SDU to determine the type of data it carries; based on the performed packet inspection, determining that the complete SDU fulfils a predetermined criterion, wherein the predefined criterion is that the complete SDU contains data which is insensitive to out-of-sequence delivery; and delivering the complete SDU which fulfils the predetermined criterion to a higher layer in the radio device, before receiving a retransmission of the PDU which is missing.
A method for a first device to authenticate a battery, the method performed by the first device and comprising: sending to the battery a challenge value corresponding to an expected response value known by the first device, and a hiding value, where the challenge value and the expected response value are stored on the first device; receiving from the battery a masked response value, wherein the masked response value received from the battery was computed by the battery using the challenge value, the hiding value, and secret information known to the battery and not known to the first device; obtaining an expected masked response value from the expected response value and the hiding value; determining whether the expected masked response value matches the masked response value received from the battery; and repeating the sending, receiving, obtaining and determining using a different hiding value but the same challenge value and corresponding expected response value. sending to the battery a challenge value corresponding to an expected response value known by the first device, and a hiding value, where the challenge value and the expected response value are stored on the first device; receiving from the battery a masked response value, wherein the masked response value received from the battery was computed by the battery using the challenge value, the hiding value, and secret information known to the battery and not known to the first device; obtaining an expected masked response value from the expected response value and the hiding value; determining whether the expected masked response value matches the masked response value received from the battery; and
Printed circuit board for a luminaire, comprising a plurality of circuit branches with a plurality of light-emitting diodes, wherein the light-emitting diodes of a circuit branch are each connected in series with one another, while the circuit branches are connected in parallel with each other, wherein a first number of light-emitting diodes (LD11, LD15, LD21, LD25, LD31 LD35, LD41, LD45, LD51, LD55, LD61, LD65) of a circuit branch are arranged on a front side of the printed circuit board, while a second number of light emitting diodes (LDi11, LDi31, LDi52) of the same circuit branch are arranged on a rear side of the printed circuit board, wherein the light emitting diodes (LD11, LD15, LD21, LD25, LD31 LD35, LD41, LD45, LD51, LD55, LD61, LD65) of a circuit branch are of the same type, characterized in that the light emitting diodes (LD11, LD15, LD21, LD25, LD31 LD35, LD41, LD45, LD51, LD55, LD61, LD65) of the first number have a voltage potential that is different from that of the light emitting diodes (LDi11, LDi31, LDi52) of the second number.
A hose mounting assembly comprising: A mounting member that includes a base and a main body portion, wherein the main body portion includes first and second ends, a curved tie tunnel defined therethrough, and a curved mounting surface, and wherein the base includes a first connection opening defined therethrough; and further comprising a spacer member that includes a base and an extension portion having first and second ends, wherein the base of the mounting member is secured to the first end of the extension portion, wherein the base of the spacer member includes at least a first alignment protrusion extending from a bottom surface thereof.
An apparatus for detecting a lesion, comprising: an electrode for applying two voltages of different first and second frequencies to a part of a body; a probe having a plurality of sensing electrodes for sensing signals induced by the two voltages of the different first and second frequencies from an examining part of the body; and a control unit for determining a pinpoint of the lesion in a probe plane opposite to a center of the lesion with reference to the sensed signals, calculating a distance between the center of the lesion and the pinpoint of the lesion in the probe plane with reference to the sensed signals, calculating a volume of the lesion with reference to an average of the sensed signals, the distance, an intensity of the signal sensed at the pinpoint of the lesion in the probe plane; and determining a position of a lesion in the body with reference to the determined pinpoint and the calculated distance, wherein the control unit calculates a difference value between an intensity of a signal of the first frequency and an intensity of a signal of the second frequency of the sensed signals of the sensing electrodes, and determines a position of the sensing electrode which has a maximum value of the calculated difference values as the pinpoint in the probe plane opposite to the center of lesion. an electrode for applying two voltages of different first and second frequencies to a part of a body; a probe having a plurality of sensing electrodes for sensing signals induced by the two voltages of the different first and second frequencies from an examining part of the body; and a control unit for determining a pinpoint of the lesion in a probe plane opposite to a center of the lesion with reference to the sensed signals, calculating a distance between the center of the lesion and the pinpoint of the lesion in the probe plane with reference to the sensed signals, calculating a volume of the lesion with reference to an average of the sensed signals, the distance, an intensity of the signal sensed at the pinpoint of the lesion in the probe plane; and determining a position of a lesion in the body with reference to the determined pinpoint and the calculated distance, wherein the control unit calculates a difference value between an intensity of a signal of the first frequency and an intensity of a signal of the second frequency of the sensed signals of the sensing electrodes, and determines a position of the sensing electrode which has a maximum value of the calculated difference values as the pinpoint in the probe plane opposite to the center of lesion.
A method for producing a fried noodle lump by dipping, in frying oil held in a frying oil tank, a retainer holding a group of noodle strings having been gelatinized, comprising: a first step of conveying the retainer with a part of the group of noodle strings dipped in the frying oil held in the frying oil tank; and a second step, following the first step, of conveying the retainer with the whole of the group of noodle strings dipped in the frying oil held in the frying oil tank, wherein a flow rate of the frying oil supplied to an upstream portion of the frying oil tank is 90% or less of a flow rate of the frying oil supplied to a downstream portion of the frying oil tank. a first step of conveying the retainer with a part of the group of noodle strings dipped in the frying oil held in the frying oil tank; and a second step, following the first step, of conveying the retainer with the whole of the group of noodle strings dipped in the frying oil held in the frying oil tank, wherein a flow rate of the frying oil supplied to an upstream portion of the frying oil tank is 90% or less of a flow rate of the frying oil supplied to a downstream portion of the frying oil tank.
A smoke filtration device for making self- and machine-rolled conically shaped cigarettes, comprising a frusto-conical tubular body with a proximal end, a distal end and an internal smoke filtering passage connecting said ends, characterized in that said smoke filtering passage is integrally formed with said tubular body, said tubular body is made of a sintered ceramic material, said smoke filtering passage is configured as an open-cell porous structure having an effective porosity of 75 to 85%. said smoke filtering passage is integrally formed with said tubular body, said tubular body is made of a sintered ceramic material, said smoke filtering passage is configured as an open-cell porous structure having an effective porosity of 75 to 85%.
Adapter for a rolling assembly, the said rolling assembly having an axis of rotation and comprising a tyre having two beads, a rim having two rim bead seats and two adapters each intended to provide the connection between one of the beads and the rim, the said adapter comprising: - an axially inner end intended to be mounted on a rim bead seat and comprising an inner reinforcing element and a substantially radial axially outer face, - an axially outer end intended to come into contact with a bead and comprising an outer reinforcing element and a substantially radial axially inner face or bearing face, - a substantially axial body connecting the said axially outer end to the said axially inner end so as to form a single piece, - the body comprising at least a main reinforcement providing the connection between the outer reinforcing element and the inner reinforcing element, the main reinforcement comprising at least one layer of mutually parallel reinforcers, - the body comprising an adapter seat intended to receive the bead and situated near the axially outer end, the reinforcing element of the axially outer end being wholly situated axially on the outside of the bearing face and radially on the outside of the adapter seat, characterized in that the main reinforcement comprises a radial superposition of at least two layers of reinforcers, the said reinforcers being mutually parallel within one and the same layer and crossed with one another from one layer to the next, and in that each of the layers of the main reinforcement of the body comprises reinforcers which make, with a circumferential direction (XX') of the tyre, an angle at least equal to 30°, and coated with a polymer material having an elastic modulus at 10% elongation at most equal to 70 MPa. - an axially inner end intended to be mounted on a rim bead seat and comprising an inner reinforcing element and a substantially radial axially outer face, - an axially outer end intended to come into contact with a bead and comprising an outer reinforcing element and a substantially radial axially inner face or bearing face, - a substantially axial body connecting the said axially outer end to the said axially inner end so as to form a single piece, - the body comprising at least a main reinforcement providing the connection between the outer reinforcing element and the inner reinforcing element, the main reinforcement comprising at least one layer of mutually parallel reinforcers, - the body comprising an adapter seat intended to receive the bead and situated near the axially outer end,