mhurhangee/ep-ind-claims huggingface dataset:
A system, comprising: means for delivering a cardiovascular therapy, including means for delivering neural modulation to treat a cardiovascular condition, wherein the means for delivering neural modulation to treat the cardiovascular condition includes means for delivering a neural modulation therapy selected from the group of neuromodulation therapies consisting of: a heart failure therapy, a myocardial infarction therapy; a post-myocardial infarction remodeling therapy, a hypertension therapy, and an anti-arrhythmia therapy, wherein the means for delivering neural stimulation(1517, 1617) for the cardiac therapy includes delivering a peripheral nerve field modulation (PNFM) to peripheral nerve fields of one or more of the intercostal nerves extending to and from a T1-T5 region of a spinal cord using peripheral nerve field modulation electrodes, wherein the peripheral nerve field modulation electrodes are configured to be implanted in a subcutaneous space parasternally, or are configured to be implanted in a subcutaneous space paraspinally, the subcutaneous space being a non-intrathoracic space within the tissue layers or outside of or adjacent to the rib cage and the peripheral nerve field modulation electrodes are configured to be positioned in a subdermal level to stimulate a targeted region of subcutaneous nerve fibers. means for delivering a cardiovascular therapy, including means for delivering neural modulation to treat a cardiovascular condition, wherein the means for delivering neural modulation to treat the cardiovascular condition includes means for delivering a neural modulation therapy selected from the group of neuromodulation therapies consisting of: a heart failure therapy, a myocardial infarction therapy; a post-myocardial infarction remodeling therapy, a hypertension therapy, and an anti-arrhythmia therapy, wherein the means for delivering neural stimulation(1517, 1617) for the cardiac therapy includes delivering a peripheral nerve field modulation (PNFM) to peripheral nerve fields of one or more of the intercostal nerves extending to and from a T1-T5 region of a spinal cord using peripheral nerve field modulation electrodes, wherein the peripheral nerve field modulation electrodes are configured to be implanted in a subcutaneous space parasternally, or are configured to be implanted in a subcutaneous space paraspinally, the subcutaneous space being a non-intrathoracic space within the tissue layers or outside of or adjacent to the rib cage and the peripheral nerve field modulation electrodes are configured to be positioned in a subdermal level to stimulate a targeted region of subcutaneous nerve fibers.
Method for discrete changing of a position output, more particularly of its path output and/or angle output, on a hydraulic drive (1, 100), in which method • at least one displacer cylinder (6, 7) incrementally either supplies to or discharges from the drive (1, 100) its displacer volume (8, 9), as a function of at least one input signal (4, 5), by means of relocation of its piston element (10, 11) from a starting position (12, 13) into an end position (14, 15), in that the piston element (10, 11) of the displacer cylinder (6, 7) is relocated multiple times from the starting position into the end position (12, 14 and 13, 15, respectively) and from this end position (14, 15) back again, in order to discretely change the position output on the drive (1, 100) in accordance with the displacer volume (8, 9) supplied or discharged, • wherein during relocation of the piston element (10, 11) from the starting position into the end position (12, 14 and 13, 15, respectively), the displacer cylinder (6, 7) is hydraulically connected with a feed line or return line (20, 21) of a pressure medium source, • and in a subsequent step, the changed position output on the drive (1, 100) is reset again, characterized in that • when the piston element (10, 11) is relocated from the end position into the starting position (14, 12 and 15, 13, respectively), the cylinder chambers (32, 22 and 46, 47, respectively) of the displacer cylinder (6, 7) are hydraulically short-circuited by way of a short-circuit line (30, 31) that is hydraulically separated from the feed line or return line (20, 21) of the pressure medium source. • at least one displacer cylinder (6, 7) incrementally either supplies to or discharges from the drive (1, 100) its displacer volume (8, 9), as a function of at least one input signal (4, 5), by means of relocation of its piston element (10, 11) from a starting position (12, 13) into an end position (14, 15), in that the piston element (10, 11) of the displacer cylinder (6, 7) is relocated multiple times from the starting position into the end position (12, 14 and 13, 15, respectively) and from this end position (14, 15) back again, in order to discretely change the position output on the drive (1, 100) in accordance with the displacer volume (8, 9) supplied or discharged, • wherein during relocation of the piston element (10, 11) from the starting position into the end position (12, 14 and 13, 15, respectively), the displacer cylinder (6, 7) is hydraulically connected with a feed line or return line (20, 21) of a pressure medium source, • and in a subsequent step, the changed position output on the drive (1, 100) is reset again, characterized in that • when the piston element (10, 11) is relocated from the end position into the starting position (14, 12 and 15, 13, respectively), the cylinder chambers (32, 22 and 46, 47, respectively) of the displacer cylinder (6, 7) are hydraulically short-circuited by way of a short-circuit line (30, 31) that is hydraulically separated from the feed line or return line (20, 21) of the pressure medium source.
A method for computer-implemented determination of control parameters of a turbine (T1,...,Tn) in case of a component malfunction, the turbine (T1,..., Tn) being a wind turbine having a generator or a gas turbine having a generator, comprising the steps of: S1) receiving, by an interface, an information indicating a component malfunction; S2) identifying, by a processing unit, as to what power level the turbine (T1,...,Tn) can be operated at, by a simulation of the operation of the turbine (T1,...,Tn), the simulation being made with a given turbine model in which the identified component is set to be operated with a reduced function and in which one or more characteristic values (AG, MP, MDM, TC, CR) of the turbine (T1,...,Tn) are used as input parameter; and S3) deriving, by the processing unit, the control parameters for the turbine (T1,...,Tn) from the identified power level; characterized in that the one or more characteristic values (AG, MP, MDM, TC, CR) are manufacturing tolerances of the characteristic values (AG, MP, MDM, TC, CR) obtained by measurement during the manufacturing process. S1) receiving, by an interface, an information indicating a component malfunction; S2) identifying, by a processing unit, as to what power level the turbine (T1,...,Tn) can be operated at, by a simulation of the operation of the turbine (T1,...,Tn), the simulation being made with a given turbine model in which the identified component is set to be operated with a reduced function and in which one or more characteristic values (AG, MP, MDM, TC, CR) of the turbine (T1,...,Tn) are used as input parameter; and S3) deriving, by the processing unit, the control parameters for the turbine (T1,...,Tn) from the identified power level; characterized in that the one or more characteristic values (AG, MP, MDM, TC, CR) are manufacturing tolerances of the characteristic values (AG, MP, MDM, TC, CR) obtained by measurement during the manufacturing process.
An organic resin non-crimped staple fiber for wet-laid nonwoven fabrics, the organic resin non-crimped staple fiber having a fineness of 0.0001 to 0.6 decitex, a fiber length of 1.0 to 5.0 millimeters, a moisture content of 10 to 100 weight%, a cut-end coefficient of 1.01 to 1.30, and a coefficient of variation relative to fiber length (CV%) of 0.0 to 15.0%, the cut-end coefficient, and the coefficient of variation relative to fiber length being defined as follows: Cut − End Coefficient = b / a, wherein a is the fiber diameter of a single yarn of the non-crimped staple fiber, and b is the maximum diameter at the cut end; Coefficient of Variation Relative to Fiber Length CV % = standard devition of fiber length / mean value of fiber length × 100 %, wherein the number of measured single yarns is 50 in and.
A laryngoscope comprising a body portion and a blade portion, the blade portion being separable from the body portion, and the laryngoscope being provided with a spoiling means, the spoiling means comprising a mother chip provided in the body portion, for sending and receiving signals to and from a radio frequency tag provided in the blade portion, the mother chip being adapted, when the radio frequency tag and the mother chip are brought into contact, to electronically mark the radio frequency tag so that it can be recognised as having been in contact with the said body portion, and the spoiling means being adapted to indicate if the blade portion has already been attached to the said body portion or to another laryngoscope body portion comprising a mother chip for sending and receiving signals to and from the radio frequency tag in the blade portion, the mother chip of the said another laryngoscope body portion being adapted, when the radio frequency tag and the mother chip are brought into contact, to electronically mark the radio frequency tag so that it can be recognised as having been in contact with the said another body portion, previously.
A separator assembly for removing dirt from an air flow in a suction cleaner, the separator assembly including a plurality of cyclone separators arranged fluidly in parallel for separating fine dirt from an air flow, each providing: a body (176a, 176b) defining a lengthwise axis, configured to receive from a cyclone inlet (160a, 160b) towards a first end a swirling flow of air within a volume defined by the body, the body providing a dirt outlet (172a, 172b) formed at a second end, an end wall at the first end of the body, and an annular vortex finder that extends coaxially with the lengthwise axis, defining a passage from a vortex finder inlet disposed within the volume of the body to a vortex finder outlet formed in the end wall, wherein the diameter of the passage is narrower at the vortex finder inlet than at the vortex finder outlet, characterised in that a chamber is formed downstream of the vortex finder outlets, providing a shared discharge volume into which air is discharged from the vortex finder outlet of each cyclone wherein a pre-motor filter is disposed immediately downstream of the vortex finder outlets. a body (176a, 176b) defining a lengthwise axis, configured to receive from a cyclone inlet (160a, 160b) towards a first end a swirling flow of air within a volume defined by the body, the body providing a dirt outlet (172a, 172b) formed at a second end, an end wall at the first end of the body, and an annular vortex finder that extends coaxially with the lengthwise axis, defining a passage from a vortex finder inlet disposed within the volume of the body to a vortex finder outlet formed in the end wall, wherein the diameter of the passage is narrower at the vortex finder inlet than at the vortex finder outlet, characterised in that a chamber is formed downstream of the vortex finder outlets, providing a shared discharge volume into which air is discharged from the vortex finder outlet of each cyclone wherein a pre-motor filter is disposed immediately downstream of the vortex finder outlets.
A device for generating x-rays, comprising: a housing including at least one port for at least partially evacuating the housing of atmosphere, at least a portion of the housing being substantially transparent to the x-rays; a rotor within the housing, the rotor comprising a first and a second metallic surface; and a first material within the housing, the first material being insulated from ground and comprising an electrically insulating material; the rotor or at least portions of the first material moveable relative to each other so as to produce an intermittent sliding frictional contact between the first metallic surface of the rotor and the first material, the intermittent sliding frictional contact allowing for electrical discharge; wherein the second metallic surface of the rotor is not in frictional contact with the first material and provides an electron target for generation of x-rays. a housing including at least one port for at least partially evacuating the housing of atmosphere, at least a portion of the housing being substantially transparent to the x-rays; a rotor within the housing, the rotor comprising a first and a second metallic surface; and a first material within the housing, the first material being insulated from ground and comprising an electrically insulating material; the rotor or at least portions of the first material moveable relative to each other so as to produce an intermittent sliding frictional contact between the first metallic surface of the rotor and the first material, the intermittent sliding frictional contact allowing for electrical discharge; wherein the second metallic surface of the rotor is not in frictional contact with the first material and provides an electron target for generation of x-rays.
Unit composed of - a support for receiving at least one surgical object in a receiving position and - at least one surgical object, wherein said support comprises - a main body, - at least one holding surface which is movable relative to the main body and which is designed and arranged in such a way that the object is held in the receiving position by means of the holding surface, wherein - the object can be removed from the receiving position in a removal direction, and - the removal direction extends at an angle of at most 45° to a longitudinal axis of the object received in the receiving position, - the support - has at least two holding surfaces which are movable relative to the main body and between which the object can be held and/or - has at least one holding surface which is movable relative to the main body and has at least two holding surface portions between which the object can be held, - the holding surface is pretensioned by spring means and - the spring means comprise at least one tongue whose end comprises or forms the holding surface, wherein in the receiving position, at least the end of the tongue extends in a tongue direction which forms an acute angle with the removal direction, wherein the support comprises at least one supporting surface which is designed and arranged in such a way that a supporting area of the object is or can be brought into contact with the supporting surface in the receiving position, characterized in that the supporting surface of the support is designed and arranged such that in the receiving position, it is in contact with the underside of a cross-sectional enlargement of the object, wherein the underside forms the supporting area, wherein the object is designed as a bone screw with a head or as a bone nail with a head, which head forms the cross-sectional enlargement. - a support for receiving at least one surgical object in a receiving position and - at least one surgical object, - a main body, - at least one holding surface which is movable relative to the main body and which is designed and arranged in such a way that the object is held in the receiving position by means of the holding surface, - the object can be removed from the receiving position in a removal direction, and - the removal direction extends at an angle of at most 45° to a longitudinal axis of the object received in the receiving position, - the support - has at least two holding surfaces which are movable relative to the main body and between which the object can be held and/or - has at least one holding surface which is movable relative to the main body and has at least two holding surface portions between which the object can be held, - has at least two holding surfaces which are movable relative to the main body and between which the object can be held and/or - has at least one holding surface which is movable relative to the main body and has at least two holding surface portions between which the object can be held, - the holding surface is pretensioned by spring means and - the spring means comprise at least one tongue whose end comprises or forms the holding surface,
A coating comprising: calcium oxide and/or calcium hydroxide; magnesium sulfate; benzoic acid and/or a benzoate salt; and a resin, wherein the coating comprises 0.1-30 parts by mass in total of the calcium oxide and calcium hydroxide, 0.05-15.0 parts by mass of the magnesium sulfate, and 0.01-10 parts by mass in total of the benzoic acid and the benzoate salts per 100 parts by mass of a total solid content in the coating. calcium oxide and/or calcium hydroxide; magnesium sulfate; benzoic acid and/or a benzoate salt; and a resin, wherein the coating comprises 0.1-30 parts by mass in total of the calcium oxide and calcium hydroxide, 0.05-15.0 parts by mass of the magnesium sulfate, and 0.01-10 parts by mass in total of the benzoic acid and the benzoate salts per 100 parts by mass of a total solid content in the coating.
A method of producing -5-(3,4-difluorophenyl)-5-[(3-methyl-2-oxopyridin-1 -yl)methyl]imidazolidin-2,4-dione, the method comprising: (a) a step of separating an isomer represented by the following formula from a mixture of isomers represented by the following formula; and (b) a step of removing menthyloxycarbonyl group of the compound represented by formula separated in step (a) to obtain -5-(3,4-difluorophenyl)-5-[(3-methyl-2-oxopyridin-1 -yl)methyl]imidazolidin-2,4-dione. (a) a step of separating an isomer represented by the following formula from a mixture of isomers represented by the following formula; and (b) a step of removing menthyloxycarbonyl group of the compound represented by formula separated in step (a) to obtain -5-(3,4-difluorophenyl)-5-[(3-methyl-2-oxopyridin-1 -yl)methyl]imidazolidin-2,4-dione.
A method of making a multimodal polymer product comprising: producing a first polymer in a first reactor, wherein the first polymer is a propylene homopolymer or a propylene copolymer having an ethylene or a C 4 to C 10 olefin comonomer; producing a second polymer in a second reactor in parallel with the first reactor, wherein the second polymer is a propylene homopolymer or a propylene copolymer having an ethylene or a C 4 to C 10 olefin comonomer, and wherein the first polymer and second polymer have a difference in heat of fusion of 25 J/g or more; combining the first polymer and the second polymer to form a multimodal polymer blend; and pelletizing the multimodal polymer blend to form a plurality of pellets comprising the multimodal polymer blend; wherein the first polymer has a melt viscosity of 2 Pa s (2000 cP) or less, measured at 190°C and determined according to ASTM D-3236. producing a first polymer in a first reactor, wherein the first polymer is a propylene homopolymer or a propylene copolymer having an ethylene or a C 4 to C 10 olefin comonomer; producing a second polymer in a second reactor in parallel with the first reactor, wherein the second polymer is a propylene homopolymer or a propylene copolymer having an ethylene or a C 4 to C 10 olefin comonomer, and wherein the first polymer and second polymer have a difference in heat of fusion of 25 J/g or more; combining the first polymer and the second polymer to form a multimodal polymer blend; and pelletizing the multimodal polymer blend to form a plurality of pellets comprising the multimodal polymer blend; wherein the first polymer has a melt viscosity of 2 Pa s (2000 cP) or less, measured at 190°C and determined according to ASTM D-3236.
A method for stabilizing a cell-containing biological sample by contacting the sample with at least one compound according to formula 1 wherein R1 is a hydrogen residue or an alkyl residue, R2 and R3 are identical or different hydrocarbon residues with a length of the carbon chain of 1 - 20 atoms arranged in a linear or branched manner, and R4 is an oxygen, sulphur or selenium residue and wherein said compound according to formula 1 is an N,N-dialkylpropanamide.
A blade for an aviation engine comprising: an airfoil portion formed entirely from a first metallic material, having a forward airfoil edge, a first airfoil surface, and a second airfoil surface; and a sheath portion formed from a second metallic material, the sheath portion having a sheath head section, a first sheath flank and a second sheath flank, both flanks (52A, 52B) extending chordwise rearwardly from the sheath head section, wherein the sheath portion is bonded to the airfoil portion such that the sheath head section covers the forward airfoil edge to define a blade leading edge, the first sheath flank covers a portion of the first airfoil surface proximate the forward airfoil edge, jointly defining a blade suction surface, and the second sheath flank covers a portion of the second airfoil surface proximate the forward airfoil edge, jointly defining a blade pressure surface opposite the blade suction surface; characterised in that the first metallic material is an aluminum alloy containing between about 0.5 wt% and about 3.0 wt% of lithium. an airfoil portion formed entirely from a first metallic material, having a forward airfoil edge, a first airfoil surface, and a second airfoil surface; and a sheath portion formed from a second metallic material, the sheath portion having a sheath head section, a first sheath flank and a second sheath flank, both flanks (52A, 52B) extending chordwise rearwardly from the sheath head section, wherein the sheath portion is bonded to the airfoil portion such that the sheath head section covers the forward airfoil edge to define a blade leading edge, the first sheath flank covers a portion of the first airfoil surface proximate the forward airfoil edge, jointly defining a blade suction surface, and the second sheath flank covers a portion of the second airfoil surface proximate the forward airfoil edge, jointly defining a blade pressure surface opposite the blade suction surface; characterised in that the first metallic material is an aluminum alloy containing between about 0.5 wt% and about 3.0 wt% of lithium.
A method of data transfer via a data and power connection comprising: determining whether a data transmission error is detected via the data and power connection; and in response to a determination that a data transmission error is detected via the data and power connection, decreasing current across the data and power connection; wherein decreasing current across the data and power connection comprises, with a policy manager of the power source device, increasing a voltage output of the power source device to decrease a current on at least one power supply line. determining whether a data transmission error is detected via the data and power connection; and in response to a determination that a data transmission error is detected via the data and power connection, decreasing current across the data and power connection; wherein decreasing current across the data and power connection comprises, with a policy manager of the power source device, increasing a voltage output of the power source device to decrease a current on at least one power supply line.