mhurhangee/ep-ind-claims huggingface dataset:
A kit for intravascular implantation of an implantable medical device within a patient, the kit comprising: an elongated outer sheath forming an inner lumen with a distal opening, the outer sheath sized to traverse a vasculature of the patient; and an elongated inner sheath with a stopper configured engage a proximal side of the implantable medical device to preclude the implantable medical device from being located at a more proximal position than the stopper within the inner lumen of the outer sheath; characterised in that the inner sheath further includes a tether configured to form a loop on a distal side of the stopper, the loop being configured to engage a looped element of the implantable medical device to couple the implantable medical device to the inner sheath, wherein the stopper is slidable relative to the outer sheath between a position that is proximally located relative to the distal opening of the outer sheath and a position in which at least a portion of the stopper is distally located relative to the distal opening of the outer sheath, wherein the tether is configured to release the looped element of the implantable medical device from the inner sheath by opening the tether loop when the at least a portion of the stopper is located distally relative to the distal opening of the outer sheath. an elongated outer sheath forming an inner lumen with a distal opening, the outer sheath sized to traverse a vasculature of the patient; and an elongated inner sheath with a stopper configured engage a proximal side of the implantable medical device to preclude the implantable medical device from being located at a more proximal position than the stopper within the inner lumen of the outer sheath; characterised in that the inner sheath further includes a tether configured to form a loop on a distal side of the stopper, the loop being configured to engage a looped element of the implantable medical device to couple the implantable medical device to the inner sheath, wherein the stopper is slidable relative to the outer sheath between a position that is proximally located relative to the distal opening of the outer sheath and a position in which at least a portion of the stopper is distally located relative to the distal opening of the outer sheath, wherein the tether is configured to release the looped element of the implantable medical device from the inner sheath by opening the tether loop when the at least a portion of the stopper is located distally relative to the distal opening of the outer sheath.
A microcapsule comprising a capsule core, which contains a pheromone, a water-immiscible organic solvent, and a capsule wall, which contains in polymerized form 30 to 90% by weight of one or more C 1 -C 24 -alkyl esters of acrylic acid and/or methacrylic acid, acrylic acid, methacrylic acid and/or maleic acid (monomers I), 10 to 70% by weight of one or more difunctional and/or polyfunctional monomers (monomers II), and 0 to 40% by weight of one or more other monomers (monomer III), in each case based on the total weight of the monomers, wherein the pheromone is present in dissolved form in the capsule core, wherein the capsule core contains an attractant selected from non-food attractants and food attractants, and wherein the non-food attractants are flavors of natural or synthetic origin, or mixtures thereof, whererin the water-immiscible organic solvent has a solubility in water of up to 10 g/l at 20 °C, wherein the capsule wall comprises in copolymerized form 25% to 75% by weight of maleic acid, methacrylic acid and/or acrylic acid based on the total amount of the monomers I, wherein the difunctional monomers are divinylmonomers selected from diesters of diols with acrylic acid or methacrylic acid, and diallyl and divinyl ethers of diols, and wherein the polyfunctional monomers are polyvinylmonomers selected from polyesters of polyols with acrylic acid and/or methacrylic acid, polyallyl and polyvinyl ethers of polyols, trivinylbenzene and trivinylcyclohexane. 30 to 90% by weight of one or more C 1 -C 24 -alkyl esters of acrylic acid and/or methacrylic acid, acrylic acid, methacrylic acid and/or maleic acid (monomers I), 10 to 70% by weight of one or more difunctional and/or polyfunctional monomers (monomers II), and 0 to 40% by weight of one or more other monomers (monomer III),
Flush mounted box for conduits, comprising: - an open-top, cup-shaped upper housing part having a bottom and at least one, preferably four, side walls, which have means for fixing an electrical installation device, - a lower housing part, which is fixed as a base in a conduit and which interacts with the bottom of the upper housing part in order to form the flush mounted box, the upper housing part being moved in rotation with respect to the lower housing part, ch aracterized in that the overall height of the flush mounted box is changed as a result, the bottom of the upper housing part has a round, disc-shaped recess which, with a round disc-shaped cylindrical base part, permits the relative rotation of the two housing parts (2, 6), in particular about a central axis, which is materialized by a cylindrical lug in a circular hole, and wherein the round disc-like recess of the bottom has at least two projections (15, 15') which are fitted diametrically opposite each other, which project in the direction of the lower device part and engage in an annular groove in the round disc-shaped cylindrical base part in order to vary the distance (d) between the two housing parts (2, 6), in that the bottom of this groove is configured with a variable depth. - an open-top, cup-shaped upper housing part having a bottom and at least one, preferably four, side walls, which have means for fixing an electrical installation device, - a lower housing part, which is fixed as a base in a conduit and which interacts with the bottom of the upper housing part in order to form the flush mounted box, the upper housing part being moved in rotation with respect to the lower housing part, ch aracterized in that the overall height of the flush mounted box is changed as a result, the bottom of the upper housing part has a round, disc-shaped recess which, with a round disc-shaped cylindrical base part, permits the relative rotation of the two housing parts (2, 6), in particular about a central axis, which is materialized by a cylindrical lug in a circular hole, and wherein the round disc-like recess of the bottom has at least two projections (15, 15') which are fitted diametrically opposite each other, which project in the direction of the lower device part and engage in an annular groove in the round disc-shaped cylindrical base part in order to vary the distance (d) between the two housing parts (2, 6), in that the bottom of this groove is configured with a variable depth.
A fuze (100, 101, 200)) for a projectile comprising: a set-back generator to supply electric power; an impact sensor trigger circuit (260, 260a) and a safety lockout circuit are coupled to an electronic firing circuit; wherein said impact sensor trigger circuit (260, 260a) comprises a piezo-electric sensor; and an electric detonator; wherein the fuze is configured such that, upon impact of said projectile on a target, said piezo-electric sensor generates and sends a firing signal (PIEZO_TRG) to said electronic firing circuit, which sets off said electric detonator depending on said safety lockout circuit, characterised in that: the electric detonator is disposed substantially co-axially in-line with a firing pin; and the detonation of the electric detonator in turn is operable to actuate said firing pin to set off a stab detonator. a set-back generator to supply electric power; an impact sensor trigger circuit (260, 260a) and a safety lockout circuit are coupled to an electronic firing circuit; wherein said impact sensor trigger circuit (260, 260a) comprises a piezo-electric sensor; and an electric detonator; wherein the fuze is configured such that, upon impact of said projectile on a target, said piezo-electric sensor generates and sends a firing signal (PIEZO_TRG) to said electronic firing circuit, which sets off said electric detonator depending on said safety lockout circuit, characterised in that: the electric detonator is disposed substantially co-axially in-line with a firing pin; and the detonation of the electric detonator in turn is operable to actuate said firing pin to set off a stab detonator. the electric detonator is disposed substantially co-axially in-line with a firing pin; and the detonation of the electric detonator in turn is operable to actuate said firing pin to set off a stab detonator.
A transforming growth factor-β (TGF-β) antagonist comprising a TGF-β-binding peptide comprising the amino acid sequence of formula III: NH 2 ' ETWIWLDTNMG (SEQ ID NO: 4) - Xaa 1 - Xaa 2 - Xaa 3 - Xaa 4 - Xaa 5 'COOH wherein Xaa 1 is S or Y, Xaa 2 is R, Xaa 3 is I, Xaa 4 is Y and Xaa 5 is Q, and wherein said TGF-β-binding peptide contains fewer than 125 amino acids.
A method for determining a priority level of a channel state information, CSI, report, the method comprising: determining, by a user equipment, UE, priority levels of at least two CSI reports, wherein the at least two CSI reports comprise a first CSI report, and the first CSI report carries Layer 1 Signal to Interference Noise Ratio, L1-SINR; wherein the priority levels of the at least two CSI reports are used to multiplex the at least two CSI reports or drop at least a part of the at least two CSI reports in response to that there is an overlapping part in time domain resources of the at least two CSI reports, wherein each CSI report is associated with a priority value Pri iCSI (y,k,c,s), and the priority value Pri iCSi (y, k, c, s)is determined according to an equation: Pri iCSI y k c s = 2 ⋅ N cells ⋅ M s ⋅ y + N cells ⋅ M s ⋅ k + M s ⋅ c + s wherein y = 0 for an aperiodic CSI report to be carried on a physical uplink shared channel, PUSCH, y = 1 for a semi-persistent CSI report to be carried on the PUSCH, y = 2 for a semi-persistent CSI report to be carried on a physical uplink control channel, PUCCH, and y = 3 for a periodic CSI report to be carried on the PUCCH; k = 0 for a CSI report which carries the L1-RSRP or the L1-SINR, and k = 1 for a CSI report which does not carry the L1-RSRP and L1-SINR; c denotes a serving cell index, and N cells denotes a value of a higher layer parameter maxNrofServingCells, s denotes a report configuration ID reportConfigID, and M s denotes a value of the higher layer parameter maxNrofCSI-ReportConfigurations. determining, by a user equipment, UE, priority levels of at least two CSI reports, wherein the at least two CSI reports comprise a first CSI report, and the first CSI report carries Layer 1 Signal to Interference Noise Ratio, L1-SINR; wherein the priority levels of the at least two CSI reports are used to multiplex the at least two CSI reports or drop at least a part of the at least two CSI reports in response to that there is an overlapping part in time domain resources of the at least two CSI reports, wherein each CSI report is associated with a priority value Pri iCSI (y,k,c,s), and the priority value Pri iCSi (y, k, c, s)is determined according to an equation: Pri iCSI y k c s = 2 ⋅ N cells ⋅ M s ⋅ y + N cells ⋅ M s ⋅ k + M s ⋅ c + s wherein y = 0 for an aperiodic CSI report to be carried on a physical uplink shared channel, PUSCH, y = 1 for a semi-persistent CSI report to be carried on the PUSCH, y = 2 for a semi-persistent CSI report to be carried on a physical uplink control channel, PUCCH, and y = 3 for a periodic CSI report to be carried on the PUCCH; k = 0 for a CSI report which carries the L1-RSRP or the L1-SINR, and k = 1 for a CSI report which does not carry the L1-RSRP and L1-SINR; c denotes a serving cell index, and N cells denotes a value of a higher layer parameter maxNrofServingCells, s denotes a report configuration ID reportConfigID, and M s denotes a value of the higher layer parameter maxNrofCSI-ReportConfigurations.
A quantum dot comprising ZnAgIn x Ga 1-x S y Se 1-y (0≤x<1 and 0≤y≤1), wherein the quantum dot exhibits fluorescence properties including a fluorescence full width at half maximum of less than or equal to 35 nm and a fluorescence quantum yield of greater than or equal to 60% in a green wavelength range to a red wavelength range, and wherein a ratio between Ag and Ga is in a range of Ag/Ga = 0.05 to 10, and a ratio between Zn and Ga is in a range of Zn/Ga = 0.1 to 10.
An apparatus for applying electrical stimulation, comprising: a plurality of electrical stimulation electrodes, the stimulation electrodes being spaced from each other in a predetermined configuration; one or more recording electrodes; a structure for supporting the stimulation electrodes and the recording electrodes spaced apart from each other; and a control unit for controlling the operation of the stimulation electrodes and the recording electrodes, wherein the control unit is configured to: energize the stimulation electrodes under closed-loop control using the recording electrodes to measure feedback; energize the stimulation electrodes under open-loop without measuring feedback; characterised in that the control unit is further configured to determine whether to energize the stimulation electrodes under closed-loop control or open-loop control based on determining whether the feedback measured by the recording electrodes is reliable. a plurality of electrical stimulation electrodes, the stimulation electrodes being spaced from each other in a predetermined configuration; one or more recording electrodes; a structure for supporting the stimulation electrodes and the recording electrodes spaced apart from each other; and a control unit for controlling the operation of the stimulation electrodes and the recording electrodes, wherein the control unit is configured to: energize the stimulation electrodes under closed-loop control using the recording electrodes to measure feedback; energize the stimulation electrodes under open-loop without measuring feedback; characterised in that the control unit is further configured to determine whether to energize the stimulation electrodes under closed-loop control or open-loop control based on determining whether the feedback measured by the recording electrodes is reliable. energize the stimulation electrodes under closed-loop control using the recording electrodes to measure feedback; energize the stimulation electrodes under open-loop without measuring feedback; characterised in that the control unit is further configured to determine whether to energize the stimulation electrodes under closed-loop control or open-loop control based on determining whether the feedback measured by the recording electrodes is reliable.
An optical analysis method which detects light from a light-emitting particle dispersed and moving at random in a sample solution using an optical system of a confocal microscope or a multiphoton microscope, comprising the steps of: moving a position of a light detection region of the optical system in the sample solution by changing an optical path of the optical system; measuring light intensity from the light detection region whilst moving the position of the light detection region in the sample solution to generate light intensity data; and individually detecting a signal indicating light of a light-emitting particle on the light intensity data; wherein in the step of individually detecting a signal indicating light of a light-emitting particle, a signal which has an intensity exceeding a threshold value is detected selectively as a signal indicating light of the light-emitting particle and the threshold value is set so that a signal indicating light from a light-emitting particle encompassed in a region narrower than the light detection region in the light detection region is detected selectively, characterized in that the threshold value is set so that the number of light-emitting particles encompassed at the same time in the region narrower than the light detection region is one or less. moving a position of a light detection region of the optical system in the sample solution by changing an optical path of the optical system; measuring light intensity from the light detection region whilst moving the position of the light detection region in the sample solution to generate light intensity data; and individually detecting a signal indicating light of a light-emitting particle on the light intensity data;
System housing of an E-axle module for an electrically driven vehicle, with a stator winding and a rotor of an electric machine, which is mounted in at least a first bearing plate and a second bearing plate, wherein the system housing is in the form of a double-walled extruded housing which comprises a cooling duct system which extends below a cooling surface of an installation space of power electronics, characterized in that the system housing receives an additional bearing support which is mounted centrally in the interior thereof and additionally supports a rotor shaft of the rotor of the electric machine, which rotor shaft is received in the first bearing plate, between the stator winding in the system housing, on the one hand, and a transmission arrangement, which is received on the opposite side of the bearing support in the second bearing plate, on the other hand, and separates a wet-running part of the system housing, in which the transmission arrangement is accommodated, from a dry part of the system housing, in which the rotor of the electric machine is accommodated.
A method of estimating respiratory impedance, the method comprising: coupling a patient interface device to an airway of a subject to create a pneumatic system that includes the patient interface device and an airway of such a subject; oscillating pressure, flow, or volume of gas in such an airway of such a subject via an excitation source operatively coupled to the patient interface device; determining the flow and pressure of the gas in the pneumatic system to produce a respective time series representing the flow and the pressure; characterized in that the method further comprises: transforming the respective time series to the time-frequency domain to create a transformed time series; estimating the power of the flow and the pressure from the transformed time series; estimating respective cross spectra of the flow and the pressure based the transformed time series; estimating the respiratory impedance of the subject from the estimated power and the estimated cross spectra (129, 131); and determining confidence limits on the estimated impedance. coupling a patient interface device to an airway of a subject to create a pneumatic system that includes the patient interface device and an airway of such a subject; oscillating pressure, flow, or volume of gas in such an airway of such a subject via an excitation source operatively coupled to the patient interface device; determining the flow and pressure of the gas in the pneumatic system to produce a respective time series representing the flow and the pressure; transforming the respective time series to the time-frequency domain to create a transformed time series; estimating the power of the flow and the pressure from the transformed time series; estimating respective cross spectra of the flow and the pressure based the transformed time series; estimating the respiratory impedance of the subject from the estimated power and the estimated cross spectra (129, 131); and determining confidence limits on the estimated impedance.
A double-sided fabric with a continuous cord material in a first predetermined knitting section and a second predetermined knitting section, wherein the double-sided fabric is knitted from a face yarn, the first predetermined knitting section consists of a plurality of front loops (3A, 3B) and at least one back loop knitted alternatingly; the second predetermined knitting section consists of a plurality of front loops (3D, 3E) and at least one back loop knitted alternatingly; when viewing from a first side of the double-sided fabric, the first portion of the continuous cord material is located partially under the front loops (3A, 3B) and partially above the back loop in the first predetermined knitting section, and the second portion of the continuous cord material is located partially under the front the front loops (3D, 3E) and partially above the back loop in the second predetermined knitting section; when viewing from a second side of the double-sided fabric opposite to the first side, the first portion of the continuous cord material is located partially above the front loops (3A, 3B) and partially under the back loop in the first predetermined knitting section, and the second portion of the continuous cord material is located partially above the front loops (3D, 3E) and partially under the back loop in the second predetermined knitting section, characterized in that: the front loops (3A, 3B, 3D, 3E) and the back loops (3b, 3e) in the first and second predetermined knitting sections are knitted along a same course, a first portion of the continuous cord material extends back and forth in a folded and stacked way only between the front loops (3A, 3B) and back loop in the first predetermined knitting section, and a second portion of the continuous cord material extends back and forth in a folded and stacked way only between the front loops (3D, 3E) and back loop in the second predetermined knitting section, so that the first portion and the second portion of the continuous cord material are spaced apart along the same course in the double-sided fabric. the front loops (3A, 3B, 3D, 3E) and the back loops (3b, 3e) in the first and second predetermined knitting sections are knitted along a same course, a first portion of the continuous cord material extends back and forth in a folded and stacked way only between the front loops (3A, 3B) and back loop in the first predetermined knitting section, and a second portion of the continuous cord material extends back and forth in a folded and stacked way only between the front loops (3D, 3E) and back loop in the second predetermined knitting section, so that the first portion and the second portion of the continuous cord material are spaced apart along the same course in the double-sided fabric.
A method for producing a material board comprising wood particles having reinforced areas, which has the steps of: - providing a pressed material mat made of glued wood particles, - producing recesses (8, 13, 14, 15) arranged in sections in the pressed material mat, wherein each recess is individually and separately self-contained and is not in direct contact with further recesses and the recesses are not configured as portions extending continuously over the entire length or width of the material board, characterized by the steps of: - sprinkling grass particles and/or palm species particles into the recesses (8, 13, 14, 15), - subsequently compacting the pressed material mat into a board material, - separating the compacted board material into material boards, wherein the grass particles and/or palm species particles are arranged in defined areas of the material board and are positioned in the material board in the area of through holes or in the area of fittings. - providing a pressed material mat made of glued wood particles, - producing recesses (8, 13, 14, 15) arranged in sections in the pressed material mat, wherein each recess is individually and separately self-contained and is not in direct contact with further recesses and the recesses are not configured as portions extending continuously over the entire length or width of the material board, characterized by the steps of: - sprinkling grass particles and/or palm species particles into the recesses (8, 13, 14, 15), - subsequently compacting the pressed material mat into a board material, - separating the compacted board material into material boards, wherein the grass particles and/or palm species particles are arranged in defined areas of the material board and are positioned in the material board in the area of through holes or in the area of fittings.