mhurhangee/patent-ind-claim-en huggingface dataset:
An operation field-securing device for securing an operation field by being deployed in a body cavity , the operation field-securing device comprising: at least three elongated parts extending radially in a deployed state; curved parts , the number of which is the same as that of the elongated parts ; and a sheet member configured to cover a space between the elongated parts when being deployed, wherein each pair of the two adjacent elongated parts is connected at one ends thereof by the curved part , wherein the one ends being the upper ends, in a deployed state, each of the curved parts is convex toward a side opposite to the elongated part , in the deployed state, the curved parts are arranged circumferentially, and by deforming the curved parts , the operation field-securing device is capable of being brought into either one of a contracted state where a distance between the adjacent elongated parts is shortened and the deployed state where the distance between the adjacent elongated parts is expanded, wherein the operation field-securing device further comprising an annular member to which a first edge part of the sheet member is attached, wherein a second edge part of the sheet member is attached to the other ends of the elongated parts , wherein the other ends being the lower ends, in a deployed state, and characterized in that in the contracted state, the elongated parts and the curved parts are configured to pass from one side to another side of the annular member through an inside of the annular member . at least three elongated parts extending radially in a deployed state; curved parts , the number of which is the same as that of the elongated parts ; and a sheet member configured to cover a space between the elongated parts when being deployed, wherein each pair of the two adjacent elongated parts is connected at one ends thereof by the curved part , wherein the one ends being the upper ends, in a deployed state, each of the curved parts is convex toward a side opposite to the elongated part , in the deployed state, the curved parts are arranged circumferentially, and by deforming the curved parts , the operation field-securing device is capable of being brought into either one of a contracted state where a distance between the adjacent elongated parts is shortened and the deployed state where the distance between the adjacent elongated parts is expanded, wherein the operation field-securing device further comprising an annular member to which a first edge part of the sheet member is attached, wherein a second edge part of the sheet member is attached to the other ends of the elongated parts , wherein the other ends being the lower ends, in a deployed state, and characterized in that in the contracted state, the elongated parts and the curved parts are configured to pass from one side to another side of the annular member through an inside of the annular member .
A system for magnetic field direction detection when placing a catheter comprising: a sensor configured to track a medical device, the sensor including a magnetic sensor printed circuit board, PCB , including a plurality of magnetometers arranged in a magnetometer array ; and a console coupled to the sensor , the console including a processor and non-transitory computer-readable medium having stored thereon a plurality of logic modules that, when executed by the processor, are configured to perform operations including: receiving magnetic field strength values detected by the plurality of magnetometers ; determining a position of each of the plurality of magnetometers on the sensor based on a magnetometer ID of each of the plurality of magnetometers arranged in the magnetometer array ; determining a direction of a magnetic field source relative to the sensor based on the detected magnetic field strength values and the position on the sensor of each of the plurality of magnetometers ; generating a graphic configured to illustrate the direction of the magnetic field source on a display ; and correlating each magnetometer ID with the magnetic field strength value measured at each of the plurality of magnetometers within the magnetometer array . a sensor configured to track a medical device, the sensor including a magnetic sensor printed circuit board, PCB , including a plurality of magnetometers arranged in a magnetometer array ; and a console coupled to the sensor , the console including a processor and non-transitory computer-readable medium having stored thereon a plurality of logic modules that, when executed by the processor, are configured to perform operations including: receiving magnetic field strength values detected by the plurality of magnetometers ; determining a position of each of the plurality of magnetometers on the sensor based on a magnetometer ID of each of the plurality of magnetometers arranged in the magnetometer array ; determining a direction of a magnetic field source relative to the sensor based on the detected magnetic field strength values and the position on the sensor of each of the plurality of magnetometers ; generating a graphic configured to illustrate the direction of the magnetic field source on a display ; and correlating each magnetometer ID with the magnetic field strength value measured at each of the plurality of magnetometers within the magnetometer array . receiving magnetic field strength values detected by the plurality of magnetometers ; determining a position of each of the plurality of magnetometers on the sensor based on a magnetometer ID of each of the plurality of magnetometers arranged in the magnetometer array ; determining a direction of a magnetic field source relative to the sensor based on the detected magnetic field strength values and the position on the sensor of each of the plurality of magnetometers ; generating a graphic configured to illustrate the direction of the magnetic field source on a display ; and correlating each magnetometer ID with the magnetic field strength value measured at each of the plurality of magnetometers within the magnetometer array .
A crystalline spheniscidite material for use in an electrode, comprising: from about 25 wt.% to about 30 wt.% iron; from about 15 wt.% to about 20 wt.% phosphorous; from about 4.6 wt.% to about 5.0 wt.% ammonium; wherein a molar ratio of phosphorus to iron is from about 1 to about 1.25; and the crystalline spheniscidite is an ammonium iron phosphate comprising less than 10% total impurities, and wherein the crystalline spheniscidite material has a plate-shape morphology; and the ammonium iron phosphate has a formula of NH 4 Fe 2 (PO 4 ) 2 OH ∗ 2H 2 O. from about 25 wt.% to about 30 wt.% iron; from about 15 wt.% to about 20 wt.% phosphorous; from about 4.6 wt.% to about 5.0 wt.% ammonium; wherein a molar ratio of phosphorus to iron is from about 1 to about 1.25; and the crystalline spheniscidite is an ammonium iron phosphate comprising less than 10% total impurities, and wherein the crystalline spheniscidite material has a plate-shape morphology; and the ammonium iron phosphate has a formula of NH 4 Fe 2 (PO 4 ) 2 OH ∗ 2H 2 O.
A method for wireless communication at a user equipment, UE, comprising: receiving control information indicating a resource allocation pattern for a downlink transmission that is configured for transmission using the plurality of beams and a plurality of mini-slots, wherein a duration of a mini-slot is less than a duration of a slot; identifying a start time of a first mini-slot of the plurality of mini-slots and a duration of the first mini-slot based at least in part on the resource allocation pattern; determining a duration of a second mini-slot based at least in part on the duration of the first mini-slot and a duration of a slot encompassing the first mini-slot and the second mini-slot; determining a start time of the second mini-slot based at least in part on the duration of the first mini-slot; and receiving the downlink transmission based at least in part on the start time of the first mini-slot and the duration of the first mini-slot. receiving control information indicating a resource allocation pattern for a downlink transmission that is configured for transmission using the plurality of beams and a plurality of mini-slots, wherein a duration of a mini-slot is less than a duration of a slot; identifying a start time of a first mini-slot of the plurality of mini-slots and a duration of the first mini-slot based at least in part on the resource allocation pattern; determining a duration of a second mini-slot based at least in part on the duration of the first mini-slot and a duration of a slot encompassing the first mini-slot and the second mini-slot; determining a start time of the second mini-slot based at least in part on the duration of the first mini-slot; and receiving the downlink transmission based at least in part on the start time of the first mini-slot and the duration of the first mini-slot.
A magnetic bearing , which has an inner ring and an outer ring arranged concentric to the inner ring , wherein the inner ring and the outer ring are mounted rotatably relative to each other by means of axial and radial magnets , wherein the magnetic bearing has a back-up bearing with a first back-up bearing part and a second back-up bearing part (3"), wherein the second back-up bearing part (3") is integrated into the outer ring , characterized in that the first back-up bearing part is integrated into the inner ring , wherein the first back-up bearing part and the second back-up bearing part (3") are designed in such a way that the first back-up bearing part and the second back-up bearing part (3") lie opposite each other both along the axial direction and along the radial direction.
Storage system for storing electrical energy, comprising at least one first energy store and at least one second energy store which have a different cycle stability and/or charging and discharging characteristics and are connected by means of a parallel circuit to at least one electrical consumer (18; 19) for discharging and to at least one energy source for charging, the second energy store having a higher nominal voltage, in the range of the charging voltage of the first energy store , than the first energy store , as a result of which the second energy store is discharged with priority during discharge, a voltage gradient between the first energy store and the second energy store being additionally maintained by means of a circuit having a plurality of semiconductors (61; 62) for the priority charging of the first energy store or to protect or control the second energy store , characterized in that the semiconductors (61; 62) are designed as anti-serially connected transistors (61; 62) which are operated in a switching, analog or clocked manner.
A semiconductor package (1, 1', 1"), the package (1, 1', 1") comprising: - a first substrate comprising at a front cavity side a plurality of cavities , each of the cavities having a bottom wall and side walls , and having a conductive path forming an electric contact surface located at the inner side of the bottom wall of the cavity , - a plurality of semiconductor elements , each of the semiconductor elements comprising a first electric contact surface on a first side and a second electric contact surface on a second side opposite to the first side , wherein at least one of the semiconductor elements is placed within a corresponding cavity at the front cavity side of the first substrate , wherein the first electric contact of the semiconductor element and the electric contact surface at the inner side of the bottom wall of the corresponding cavity are electrically conductive bonded in a material-locking manner, and - a second substrate , the second substrate being attached with a connection side to the front cavity side of the first substrate thereby encapsulating the semiconductor elements located within the corresponding cavities at the front cavity side of the first substrate , characterized in that a third substrate is further comprised, the third substrate being attached with a connection side to the first substrate or to the second substrate , respectively. - a first substrate comprising at a front cavity side a plurality of cavities , each of the cavities having a bottom wall and side walls , and having a conductive path forming an electric contact surface located at the inner side of the bottom wall of the cavity , - a plurality of semiconductor elements , each of the semiconductor elements comprising a first electric contact surface on a first side and a second electric contact surface on a second side opposite to the first side , wherein at least one of the semiconductor elements is placed within a corresponding cavity at the front cavity side of the first substrate , wherein the first electric contact of the semiconductor element and the electric contact surface at the inner side of the bottom wall of the corresponding cavity are electrically conductive bonded in a material-locking manner, and - a second substrate , the second substrate being attached with a connection side to the front cavity side of the first substrate thereby encapsulating the semiconductor elements located within the corresponding cavities at the front cavity side of the first substrate , characterized in that a third substrate is further comprised, the third substrate being attached with a connection side to the first substrate or to the second substrate , respectively.
A metal microparticle, which includes a nickel element contained therein and comprises a particle main body and a projection sticking out from the particle main body with particle diameter of the particle main body being 5 μm or less, wherein at least one projection among the projections has a shape of tapering-off to a point with an apparent height by an electron microscope being in the range of more than 1/4 to 8/4 or less relative to the particle diameter of the particle main body, the particle main body and the projection are an integral particle comprised of the same material; and, wherein a ratio (d/D) of a crystallite diameter (d) to a particle diameter (D) of the particle main body is 0.02 or more.
Use of a copolymer in a concentration of between 0.01 mass% to 5.0 mass % in a lubricity-imparting agent, wherein: (i) the copolymer has a weight-average molecular weight of from 10,000 to 1,000,000, and wherein the copolymer contains 60 mol% to 99 mol% of a constitutional unit (A) based on 2-methacryloyloxyethyl phosphorylcholine represented by the following formula and 1 mol% to 40 mol% of a constitutional unit (B) based on a photoreactive functional group-containing monomer represented by any one of the following formulae , , and : in the formula , R 1 represents a hydrogen atom or a hydroxyl group; in the formula , R 2 represents the following formula or the following formula or (ii) the copolymer has a weight-average molecular weight of from 10,000 to 1,000,000, and wherein the copolymer contains 60 mol% to 98 mol% of a constitutional unit (A) based on 2-methacryloyloxyethyl phosphorylcholine represented by the following formula , 1 mol% to 39 mol% of a constitutional unit (B) based on a photoreactive functional group-containing monomer represented by any one of the following formulae , , and , and 1 mol% to 30 mol% of a constitutional unit (C) based on a hydrophobic group-containing monomer represented by the following formula : in the formula , R 1 represents a hydrogen atom or a hydroxyl group; in the formula , R 2 represents the following formula or the following formula ; in the formula , n represents from 3 to 17. (i) the copolymer has a weight-average molecular weight of from 10,000 to 1,000,000, and wherein the copolymer contains 60 mol% to 99 mol% of a constitutional unit (A) based on 2-methacryloyloxyethyl phosphorylcholine represented by the following formula and 1 mol% to 40 mol% of a constitutional unit (B) based on a photoreactive functional group-containing monomer represented by any one of the following formulae , , and : in the formula , R 1 represents a hydrogen atom or a hydroxyl group; in the formula , R 2 represents the following formula or the following formula or (ii) the copolymer has a weight-average molecular weight of from 10,000 to 1,000,000, and wherein the copolymer contains 60 mol% to 98 mol% of a constitutional unit (A) based on 2-methacryloyloxyethyl phosphorylcholine represented by the following formula , 1 mol% to 39 mol% of a constitutional unit (B) based on a photoreactive functional group-containing monomer represented by any one of the following formulae , , and , and 1 mol% to 30 mol% of a constitutional unit (C) based on a hydrophobic group-containing monomer represented by the following formula : in the formula , R 1 represents a hydrogen atom or a hydroxyl group; in the formula , R 2 represents the following formula or the following formula ; in the formula , n represents from 3 to 17.
A mandrel assembly comprising: an elongated mandrel shaft having a longitudinal axis , a proximal end structured to be coupled to a mandrel carrier and a distal end ; a hollow, elongated mandrel structured to be rotatably disposed about said mandrel shaft and structured to concentrically rotate about said mandrel shaft longitudinal axis ; a bearing assembly disposed between said mandrel and said mandrel shaft and at a discrete location along the mandrel shaft, whereby said bearing assembly rotatably couples said mandrel to said mandrel shaft ; characterized in that said bearing assembly includes an inner race disposed within an outer race such that there is a gap between an outer surface of the inner race and inner surface of the outer race, and ball bearings are disposed in a passage between a bearing race formed in the inner surface and a bearing race formed in the outer surface , the passage is oversized to have an intentionally greater radial spacing than a diameter of the ball bearings to define a virtual pivot point disposed substantially on said mandrel shaft longitudinal axis and at a center of the outer race and a center of the inner race ; and wherein said bearing assembly is the only coupling between said mandrel shaft and said mandrel such that the mandrel shaft is free to pivot without a bearing or any other support structure or coupling spaced from the bearing assembly . an elongated mandrel shaft having a longitudinal axis , a proximal end structured to be coupled to a mandrel carrier and a distal end ; a hollow, elongated mandrel structured to be rotatably disposed about said mandrel shaft and structured to concentrically rotate about said mandrel shaft longitudinal axis ; a bearing assembly disposed between said mandrel and said mandrel shaft and at a discrete location along the mandrel shaft, whereby said bearing assembly rotatably couples said mandrel to said mandrel shaft ; characterized in that said bearing assembly includes an inner race disposed within an outer race such that there is a gap between an outer surface of the inner race and inner surface of the outer race, and ball bearings are disposed in a passage between a bearing race formed in the inner surface and a bearing race formed in the outer surface , the passage is oversized to have an intentionally greater radial spacing than a diameter of the ball bearings to define a virtual pivot point disposed substantially on said mandrel shaft longitudinal axis and at a center of the outer race and a center of the inner race ; and wherein said bearing assembly is the only coupling between said mandrel shaft and said mandrel such that the mandrel shaft is free to pivot without a bearing or any other support structure or coupling spaced from the bearing assembly .
A thrust bearing retainer , comprising a first ring and a second ring radially spaced from the first ring , the first ring and the second ring defining an annular passageway therebetween, characterised in that the thrust bearing retainer further comprises at least two bearing pad retaining arrangements extending from a top surface of the second ring away from the second ring , each bearing pad retaining arrangement defining a retaining channel therein.
A polypeptide comprising the polypeptide with the amino acid sequence of SEQ ID NO: 190; or any functional variant of said amino acid sequence - with a sequence identity of at least 80%, more preferably at least 85%, even more preferably at least 90%, most preferably at least 95% to the sequence of SEQ ID NO: 190, and - with a difference in protective capacity (Δpc) between the functional variant and the placebo (negative) control of at least 50%, especially at least 60%, preferably at least 70%, more preferably at least 80%, even more preferably 90%, even more preferably 95%, most preferably at least 95%. - with a sequence identity of at least 80%, more preferably at least 85%, even more preferably at least 90%, most preferably at least 95% to the sequence of SEQ ID NO: 190, and - with a difference in protective capacity (Δpc) between the functional variant and the placebo (negative) control of at least 50%, especially at least 60%, preferably at least 70%, more preferably at least 80%, even more preferably 90%, even more preferably 95%, most preferably at least 95%.
An image forming apparatus comprising: a power switch configured to switch between an ON state and an OFF state in accordance with an operation of a user; control means for cancelling a job stored in the image forming apparatus in a case where the power switch is switched to the OFF state; and power control means for shifting a power state of the image forming apparatus to a first power state after the job is cancelled by the control means , and for shifting the power state of the image forming apparatus to a second power state if the job is not cancelled by the control means , wherein the first power state is a high-speed activatable state of the image forming apparatus relative to the second power state. a power switch configured to switch between an ON state and an OFF state in accordance with an operation of a user; control means for cancelling a job stored in the image forming apparatus in a case where the power switch is switched to the OFF state; and power control means for shifting a power state of the image forming apparatus to a first power state after the job is cancelled by the control means , and for shifting the power state of the image forming apparatus to a second power state if the job is not cancelled by the control means , wherein the first power state is a high-speed activatable state of the image forming apparatus relative to the second power state.
A fuel gas manifold assembly configured to be used in an internal combustion piston engine, the fuel gas manifold assembly comprising a gas tight fuel gas manifold defining a longitudinal passage for fuel gas, a fuel gas inlet and a number of fuel gas outlets along the longitudinal passage, the fuel gas manifold assembly further comprising an outer enclosure surrounding the fuel gas manifold so as to provide a gas tight cover for the fuel gas manifold , and wherein an intermediate gas space is arranged between the inner fuel gas manifold and the outer enclosure , characterized in that the outer enclosure is provided with a planar face wall extending from one end of the enclosure to the second end of the enclosure and that the planar face wall is provided with a number of main openings along its length, arranged to communicate with the fuel gas outlets of the manifold in the enclosure and that there is arranged at least one auxiliary opening next to each one of the main openings in the planar wall communicating with the intermediate gas space .