mhurhangee/ep-ind-claims huggingface dataset:
An ophthalmic surgical device comprising: a surgical microscope; a user interface; an RFID read-write module operable to read an RFID chip and to write patient data to an RFID chip associated with a patient; surgical instrumentation; a warning system; and a processor operable to: receive data from the RFID chip associated with the patient; receive data from the surgical microscope associated with the patient including at least one parameter measured by the ophthalmic surgical system; compare the data from the RFID chip to the data from the surgical microscope; determine whether the data from the RFID chip varies from the data from the surgical microscope by more than a predetermined percentage; generate a warning, if the data from the RFID chip and the data from the surgical microscope differ in a measured parameter by more than the predetermined percentage; and transmit the warning to the warning system, causing the warning system to present a warning. a surgical microscope; a user interface; an RFID read-write module operable to read an RFID chip and to write patient data to an RFID chip associated with a patient; surgical instrumentation; a warning system; and a processor operable to: receive data from the RFID chip associated with the patient; receive data from the surgical microscope associated with the patient including at least one parameter measured by the ophthalmic surgical system; compare the data from the RFID chip to the data from the surgical microscope; determine whether the data from the RFID chip varies from the data from the surgical microscope by more than a predetermined percentage; generate a warning, if the data from the RFID chip and the data from the surgical microscope differ in a measured parameter by more than the predetermined percentage; and transmit the warning to the warning system, causing the warning system to present a warning. receive data from the RFID chip associated with the patient; receive data from the surgical microscope associated with the patient including at least one parameter measured by the ophthalmic surgical system; compare the data from the RFID chip to the data from the surgical microscope; determine whether the data from the RFID chip varies from the data from the surgical microscope by more than a predetermined percentage; generate a warning, if the data from the RFID chip and the data from the surgical microscope differ in a measured parameter by more than the predetermined percentage; and transmit the warning to the warning system, causing the warning system to present a warning.
A mutant fructosyl amino acid oxidase modified at a position corresponding to the position 56 of the amino acid sequence set forth in SEQ ID NO: 1 by substituting the amino acid residue Asn with an amino acid residue selected from Ala, Cys, Phe, Met, and Val, wherein a position corresponding to the position 56 of the amino acid sequence set forth in SEQ ID NO: 1 means the position of the amino acid residue in the fructosyl amino acid oxidase sequence that is aligned with the amino acid at position 56 in the amino acid sequence set forth in SEQ ID NO: 1, and wherein the mutant fructosyl amino acid oxidase has a ratio of dehydrogenase/oxidase activity of about 2.0 or more.
An apparatus for machining, for example cutting, a tubular piece, wherein the apparatus comprises a frame element, support rollers, which are associated with the frame element, support a workpiece and rotate the same around its longitudinal axis, and a machining unit adapted to be movable towards the workpiece, wherein the machining unit comprises support wheels adapted to bear against the workpiece, wherein the machining unit is arranged to link up with the frame element through the use of an auxiliary frame element of the apparatus, wherein the auxiliary frame element is adapted to clamp itself to the frame element at not less than two different distances, characterized in that the machining unit links up with said auxiliary frame element by way of guides and is adapted to be movable relative to the auxiliary frame element and towards or away from the support rollers by means of an adjustment element in a substantially stepless or continuous manner.
Method of determining a position of a plurality of mobile network devices (14, 15) relative to a plurality of reference network devices, wherein the plurality of mobile network devices and the plurality of reference network devices communicate with one another over a wireless channel and access the wireless channel according to an access policy comprising a sequence of time frames, characterised in that each time frame of the sequence comprises a plurality of portions (21, 22) reserved for communicating messages relating to different time-of-flight, ToF, computation methods, each of the different ToF computation methods allowing for determining a position of at least one of the plurality of mobile network devices.
A water-emulsifiable, radiation-curable polyisocyanate comprising as synthesis components a) at least one organic di- or polyisocyanate, b) at least one compound having at least one, preferably precisely one, isocyanate-reactive group and at least one free-radically polymerizable unsaturated group and/or at least one cationically polymerizable group selected from optionally substituted acryloyl groups and optionally substituted vinyl ether groups, c) optionally at least one further organic di- or polyisocyanate, different than a) d) at least one compound having precisely one isocyanate-reactive group and at least one saturated dispersive group, e) optionally at least one compound having at least two isocyanate-reactive groups, and f) optionally compounds different than a) to d) and having at least one isocyanate-reactive group, wherefrom compounds carrying capped amino groups, carbamate end groups and/or urea end groups in combination with anionic dispersive compounds are excluded as synthesis components, and wherein the isocyanate content, calculated as NCO (according to DIN 53 185) with the molecular weight 42 g/mol, is at least 3% by weight and up to 25% by weight, wherein the compound d) is a compound d1) which carries at least one anionic group or group which can be converted into an anionic group, or is a compound d3) which carries at least one nonionic group as dispersive group. a) at least one organic di- or polyisocyanate, b) at least one compound having at least one, preferably precisely one, isocyanate-reactive group and at least one free-radically polymerizable unsaturated group and/or at least one cationically polymerizable group selected from optionally substituted acryloyl groups and optionally substituted vinyl ether groups, c) optionally at least one further organic di- or polyisocyanate, different than a) d) at least one compound having precisely one isocyanate-reactive group and at least one saturated dispersive group, e) optionally at least one compound having at least two isocyanate-reactive groups, and f) optionally compounds different than a) to d) and having at least one isocyanate-reactive group,
A method of analyzing nucleic acids in a sample of nucleic acid fragments, the method comprising: introducing a limited pool of non-unique exogenous barcodes to the nucleic acid fragments wherein the limited pool comprises twenty or fewer sets of non-unique exogenous barcodes; generating a genomic library; identifying end portions of the nucleic acid fragments; sequencing the nucleic acid fragments to produce sequence reads; and aligning the sequence reads to identify a variant, wherein the end portions of the DNA fragments include endogenous barcodes. introducing a limited pool of non-unique exogenous barcodes to the nucleic acid fragments wherein the limited pool comprises twenty or fewer sets of non-unique exogenous barcodes; generating a genomic library; identifying end portions of the nucleic acid fragments; sequencing the nucleic acid fragments to produce sequence reads; and aligning the sequence reads to identify a variant, wherein the end portions of the DNA fragments include endogenous barcodes.
Method for influencing the pronation behaviour of a shoe, especially of a sports shoe, in which a) at least on parameter (φ, dφ/dt) is measured which is relevant for the behaviour of pronation, b) the measured parameter (φ, dφ/dt) is led to a control unit, c) the control unit outputs an actuation signal which is influencing the behaviour of pronation to an actuator and d) the actuator changes a property of the shoe which property is relevant for the behaviour of pronation, characterized in that the processing of data of a parameter (φ, dφ/dt) measured according to step a) takes place from a reference point of time (t K), wherein the reference point of time is determined from the touch down of the shoe on the ground, wherein the touch down of the shoe on the ground is detected by a sensor which is integrated into the shoe and which outputs a signal (S K) at the touch down of the shoe on the ground to the control unit which is characteristic for the touch down, wherein the processing of data of a parameter (φ, dφ/dt) measured according to step a) of claim 1 is terminated when the lift off of the shoe from the ground is detected or that the processing of data of a parameter (φ, dφ/dt) measured according to step a) of claim 1 is terminated when a predetermined time from the reference point of time (t K) is elapsed. a) at least on parameter (φ, dφ/dt) is measured which is relevant for the behaviour of pronation, b) the measured parameter (φ, dφ/dt) is led to a control unit, c) the control unit outputs an actuation signal which is influencing the behaviour of pronation to an actuator and d) the actuator changes a property of the shoe which property is relevant for the behaviour of pronation,
A method for laser pre-cutting a layered material with a pulsed Bessel-like laser beam, wherein the layered material is transparent to allow propagation of the laser beam through the layered material, the method comprising: setting an optical beam path and a laser characteristic of the laser beam such that an interaction of the laser beam with the layered material generates an elongate single laser pulse damage region in the layered material; and for each of a series of pre-cut positions (X N-1, X N, X N+1) of the layered material, pre-cutting the layered material by positioning the layered material and the laser beam with respect to each other and irradiating the laser beam such that the respective elongate single laser pulse damage regions extend across the at least one interface region (IR1, IR2), characterized in that the elongate single laser pulse damage region has a cross-section with an elliptical shape, wherein the layered material comprises at least one tensile stress layer, at least one compression stress layer (CSL1, CSL2) and at least one interface region (IR1, IR2) between the at least one tensile stress layer and the at least one compression stress layer (CSL1, CSL2). setting an optical beam path and a laser characteristic of the laser beam such that an interaction of the laser beam with the layered material generates an elongate single laser pulse damage region in the layered material; and for each of a series of pre-cut positions (X N-1, X N, X N+1) of the layered material, pre-cutting the layered material by positioning the layered material and the laser beam with respect to each other and irradiating the laser beam such that the respective elongate single laser pulse damage regions extend across the at least one interface region (IR1, IR2), characterized in that the elongate single laser pulse damage region has a cross-section with an elliptical shape, wherein the layered material comprises at least one tensile stress layer, at least one compression stress layer (CSL1, CSL2) and at least one interface region (IR1, IR2) between the at least one tensile stress layer and the at least one compression stress layer (CSL1, CSL2).
Method for blocking drainage of waste water comprising a specific concentration of dissolved material, whereby the method comprises the following steps: - supplying waste water into a housing through an inlet; - collecting the waste water within the housing; - draining the waste water from the housing through a first outlet, when at least a minimum volume of waste water is collected, whereby the drainage of waste water through the first outlet is automatically blocked when the waste water collected inside the housing comprises the specific concentration of dissolved material, characterized in that a floater begins to float at the specific concentration of dissolved material such that the first outlet can be blocked. - supplying waste water into a housing through an inlet; - collecting the waste water within the housing; - draining the waste water from the housing through a first outlet, when at least a minimum volume of waste water is collected, whereby the drainage of waste water through the first outlet is automatically blocked when the waste water collected inside the housing comprises the specific concentration of dissolved material,
A circuit component arrangement comprising: a base; at least one circuit component mounted to the base; and a bonding agent adhering the at least one circuit component in intimate thermal contact to the base, wherein the bonding agent is disposed in a respective open channel defined in an outward facing surface of the base in contact with each of the at least one circuit component, and wherein the base includes two opposite sides, each having at least one circuit component mounted thereto, with respective open channels and bonding agent adhering the circuit components to the base, wherein the channel includes an inlet passage passing from a surface of the base in fluid communication with the open channel for filling the bonding agent into the open channel, and wherein the inlet passage defines an internal flow passage. a base; at least one circuit component mounted to the base; and a bonding agent adhering the at least one circuit component in intimate thermal contact to the base, wherein the bonding agent is disposed in a respective open channel defined in an outward facing surface of the base in contact with each of the at least one circuit component, and
ANTI-REFILL POURER, to be pressure inserted into the neck of a bottle, of the type that comprises a hollow cylindrical body, equipped on its lower base with a hole and closed on top by a cap, equipped with a dosing spout, comprising openings and a lid, the hollow cylindrical body enclosing a ball, floating between the hole and the lid, said body having a smooth outer side surface and a thickness such as to make it rigid, where a micro-deformation occurs during said pressure insertion of the pourer, the pourer being characterised in that in the cap there is an embossed outer ring, which clings to the body, said ring being connected to a collar of the dosing spout through an inclined circular wall, the lid being supported through inclined radial ribs, projecting from the base of the aforementioned collar, wherein the ring, the wall and the ribs make a cusp-shaped geometry, and in that the micro-deformation which occurs during the pressure-insertion of the pourer is absorbed by a deformation of the inclined circular wall, which is allowed by the particular configuration with flexible geometry of the cap.
Steering column for a motor vehicle, comprising an adjustment unit with a steering spindle mounted rotatably about its longitudinal axis in a casing tube, a support unit which is connectable to the body of the motor vehicle and in which the adjustment unit can be mounted so as to be adjustable in the direction of the longitudinal axis, and a stop device with a movably mounted stop element which can be brought into a blocking position or a release position, wherein, in the blocking position, the stop element limits the adjustment travel of the adjustment unit relative to the support unit and, in the release position, allows the adjustability in the direction of the longitudinal axis beyond the adjustment travel which is limited in the blocking position, wherein the stop device has an actuation body which has an inert mass, is actively connected to the stop element and mounted movably relative to the support unit, wherein, in the event of a crash, the mass inertia of the actuation body causes the latter to interact with the stop element for movement of the stop element out of the blocking position into the release position, characterized in that an energy absorption device (73, 731) is arranged between the adjustment unit and the support unit.
A system for determining electrophysiological data comprising: an electronic control unit configured to: acquire electrophysiology signals from a plurality of electrodes (75, 76, 77, 78, 79, 80, 81, 82, 83) of one or more catheters (10, 30, 100); select at least one clique (71, 72, 73) of electrodes from the plurality of electrodes (75, 76, 77, 78, 79, 80, 81, 82, 83) to determine a plurality of local E field data points, wherein the clique of electrodes comprises at least three electrodes; determine the location and orientation of the plurality of electrodes; process the electrophysiology signals from a full set of bipole subcliques of the at least one clique (71, 72, 73) to derive the local E field data points associated with the at least one clique of electrode; derive at least one orientation independent signal from the at least one clique of electrodes from the information content corresponding to weighted parts of electrogram signals; and display or output catheter orientation independent electrophysiologic information to a user or process. acquire electrophysiology signals from a plurality of electrodes (75, 76, 77, 78, 79, 80, 81, 82, 83) of one or more catheters (10, 30, 100); select at least one clique (71, 72, 73) of electrodes from the plurality of electrodes (75, 76, 77, 78, 79, 80, 81, 82, 83) to determine a plurality of local E field data points, wherein the clique of electrodes comprises at least three electrodes; determine the location and orientation of the plurality of electrodes; process the electrophysiology signals from a full set of bipole subcliques of the at least one clique (71, 72, 73) to derive the local E field data points associated with the at least one clique of electrode; derive at least one orientation independent signal from the at least one clique of electrodes from the information content corresponding to weighted parts of electrogram signals; and display or output catheter orientation independent electrophysiologic information to a user or process.
Dispenser for dispensing a paper roll, particularly tissue paper roll, the dispenser comprising: a housing for accommodating the paper roll and having a support axis for rotatably supporting the paper roll, a brake shoe having a contact surface configured to abut at a face side of the paper roll, the brake shoe being movably attached relative to the housing, and an elastic member urging the brake shoe in a direction toward the face side of the paper roll so that the brake shoe is pushed by the face side of the paper roll toward the housing about the axis of rotation against an elastic force of the elastic member, characterized in that the elastic force of the elastic member is adjustable to adjust the braking force. a housing for accommodating the paper roll and having a support axis for rotatably supporting the paper roll, a brake shoe having a contact surface configured to abut at a face side of the paper roll, the brake shoe being movably attached relative to the housing, and an elastic member urging the brake shoe in a direction toward the face side of the paper roll so that the brake shoe is pushed by the face side of the paper roll toward the housing about the axis of rotation against an elastic force of the elastic member, characterized in that the elastic force of the elastic member is adjustable to adjust the braking force.
A control device of a hybrid vehicle having a clutch in a power transmission path between an engine and a motor generator, the clutch controlling power transmission through the power transmission path depending on an engagement state, the control device interrupting the power transmission through the power transmission path by releasing the clutch during EV running, only the motor generator being used as a drive source for running in the EV running, wherein, in a case of engagement where the clutch is engaged during the EV running while a release instruction for the clutch is output, drive of the engine is changed such that a rotation speed (N E) of the engine approaches a rotation speed (N MG) of the motor generator, characterized in that, in the case of the engagement, an upper limit value of an engine torque is defined based on a rotation speed difference (ΔN) between the rotation speed (N E) of the engine and the rotation speed (N MG) of the motor generator.
A method of improving the simulation of a development process of a photoresist, comprising: determining a reaction of a developer with a soluble photoresist surface comprising: applying a reaction rate constant at a power of a reaction order to a blocked polymer concentration to yield a resist dissolution rate of soluble resist comprising a dissolution-limited regime of development; and determining a flux of the developer into exposed and partially soluble resist comprising: applying a vector valued diffusion coefficient of the developer dependent upon the blocked polymer concentration to a gradient of developer concentration to an expansion rate of insoluble resist comprising a expansion-controlled regime of development. determining a reaction of a developer with a soluble photoresist surface comprising: applying a reaction rate constant at a power of a reaction order to a blocked polymer concentration to yield a resist dissolution rate of soluble resist comprising a dissolution-limited regime of development; and determining a flux of the developer into exposed and partially soluble resist comprising: applying a vector valued diffusion coefficient of the developer dependent upon the blocked polymer concentration to a gradient of developer concentration to an expansion rate of insoluble resist comprising a expansion-controlled regime of development.
A metallocene of the formula where M is zirconium, R 2, and R 8 are hydrogen R 1, and R 7 are identical or different and are each hydrogen, C 1 -C 12 alkyl group X is halogen or a C 1 -C 8 alkyl group A is a bridge selected from Si(CH 3) 2 C(CH 3) 2 R 4 and R 10 are independently selected from hydrogen or C 1 -C 8 alkyl group; R 3, and R 9, are identical or different, and are N(R 13 R 14) wherein R 13 is a C 1 -C 20 alkyl group and R 14 is a C 6 -C 15 -aryl group R 5, R 6, R 11 and R 12 are hydrogen atom M is zirconium, R 2, and R 8 are hydrogen R 1, and R 7 are identical or different and are each hydrogen, C 1 -C 12 alkyl group X is halogen or a C 1 -C 8 alkyl group A is a bridge selected from Si(CH 3) 2 C(CH 3) 2 R 4 and R 10 are independently selected from hydrogen or C 1 -C 8 alkyl group; R 3, and R 9, are identical or different, and are N(R 13 R 14) wherein R 13 is a C 1 -C 20 alkyl group and R 14 is a C 6 -C 15 -aryl group R 5, R 6, R 11 and R 12 are hydrogen atom