mhurhangee/ep-ind-claims huggingface dataset:
A disposable or re-closable wound or skin condition dressing and treatment system, comprising (i) a single annular base portion; (ii) an open area which is defined by the annular base portion, and which is for surrounding the wound or skin condition; (iii) a first adhesive which is of annular form, which is on a lower side of the annular base portion, and which enables the annular base portion to adhere to the skin; (iv) a removable protective cover over the first adhesive; (v) a covering portion which is sterile, which includes a translucent semi-permeable sheet or membrane, which extends over an upper side of the annual base portion, which fully covers the open area defined by the annular base portion, which allows for continued viewing of the wound or skin condition through the covering portion, and which is spaced from the wound or skin condition; and (vi) a second adhesive and a top layer, and wherein the second adhesive is of annular form, the second adhesive is on a lower side of the covering portion, the top layer is of annular form, the top layer is on the upper side of the annular base portion, and the second adhesive releasably engages the top layer whereby the covering portion is a re-closable covering portion. (i) a single annular base portion; (ii) an open area which is defined by the annular base portion, and which is for surrounding the wound or skin condition; (iii) a first adhesive which is of annular form, which is on a lower side of the annular base portion, and which enables the annular base portion to adhere to the skin; (iv) a removable protective cover over the first adhesive; (v) a covering portion which is sterile, which includes a translucent semi-permeable sheet or membrane, which extends over an upper side of the annual base portion, which fully covers the open area defined by the annular base portion, which allows for continued viewing of the wound or skin condition through the covering portion, and which is spaced from the wound or skin condition; and (vi) a second adhesive and a top layer, and wherein
Stator for an electric machine having a coil with a coil winding or a hairpin winding and a temperature sensor, wherein the stator has a thermally conductive element, wherein the temperature sensor is arranged in direct thermal contact with the thermally conductive element, wherein the thermally conductive element is arranged outside the coil and/or protrudes from the coil, wherein the stator has a current conductor, wherein the current conductor is a busbar, wherein the thermally conductive element is formed from the current conductor and protrudes from the stator in an axial direction of the stator, wherein the thermally conductive element is a subregion of the current conductor, wherein the subregion is bent out of a plane of extent of the current conductor, characterized in that a sensor holder is provided, wherein the sensor holder has a holding element with a receiving space, wherein the temperature sensor and the thermally conductive element are arranged in the receiving space, so that the temperature sensor is in direct thermal contact with the thermally conductive element, wherein the busbar is a star bar or a neutral conductor of a star circuit, in that the sensor holder has a main part, wherein the main part extends substantially in an plane of extent, in that the sensor holder is arranged on an axial end surface of the stator, so that the plane of extent is oriented substantially perpendicularly to the axial direction of the stator, in that the holding element is arranged substantially perpendicularly to the plane of extent on the main part of the sensor holder, in that the holding element has an insertion opening for inserting the thermally conductive element, wherein the receiving space is formed in such a way that the thermally conductive element, when the thermally conductive element is inserted into the receiving space, is guided through the insertion opening parallel to the temperature sensor and is arranged next to the temperature sensor, and in that the thermally conductive element and the temperature sensor have a chamfer (28, 29) at their end sides, so that the temperature sensor and the thermally conductive element, when the thermally conductive element is inserted into the receiving space, are guided past each other in a sliding manner through the insertion opening.
A wideband buffer circuit comprising: first and second transistors (306-1, 306-2) deployed as a voltage buffer and connected to first and second input terminals; first and second parallel resistor-capacitor pairs (308-1, 308-2)_connected to the first and second transistors; first and second cross-coupled transistors (310-1, 310-2) connected to the first and second parallel resistor-capacitor pairs and connected to first and second output terminals; and first and second current sources (312-1, 312-2) connected to the first and second cross-coupled transistors and a fixed voltage, wherein the first transistor, the first parallel resistor-capacitor pair, the first cross-coupled transistor and the first current source are connected in series and wherein the second transistor, the second parallel resistor-capacitor pair, the second cross-coupled transistor and the second current source are connected in series. first and second transistors (306-1, 306-2) deployed as a voltage buffer and connected to first and second input terminals; first and second parallel resistor-capacitor pairs (308-1, 308-2)_connected to the first and second transistors; first and second cross-coupled transistors (310-1, 310-2) connected to the first and second parallel resistor-capacitor pairs and connected to first and second output terminals; and first and second current sources (312-1, 312-2) connected to the first and second cross-coupled transistors and a fixed voltage, wherein the first transistor, the first parallel resistor-capacitor pair, the first cross-coupled transistor and the first current source are connected in series and wherein the second transistor, the second parallel resistor-capacitor pair, the second cross-coupled transistor and the second current source are connected in series.
A method of controlling glass temperature in a forehearth that includes at least one burner associated with said forehearth for heating glass in said forehearth, a manifold coupled to said burner, a combustion fuel supply coupled to said burner, a combustion air blower for delivering air under pressure to said manifold, and a cooling air supply communicated with the forehearth, said method including: generating a nominal burner pressure curve as a function of the amount of cooling air provided to the forehearth wherein the pressure curve includes a first portion in which the glass temperature downstream of the burner over a first range of desired temperature conditions is controlled at least in part by adjusting the amount of cooling air provided to the system and the pressure curve includes a second portion in which the temperature downstream of the burner over a second range of desired temperature conditions different from the first range is controlled at least primarily by adjusting the burner pressure; and controlling the burner pressure as a function of current air temperature downstream of said blower and delivered to said manifold according to the nominal burner pressure curve. one burner associated with said forehearth for heating glass in said forehearth, a manifold coupled to said burner, a combustion fuel supply coupled to said burner, a combustion air blower for delivering air under pressure to said manifold, and a cooling air supply communicated with the forehearth, said method including: generating a nominal burner pressure curve as a function of the amount of cooling air provided to the forehearth wherein the pressure curve includes a first portion in which the glass temperature downstream of the burner over a first range of desired temperature conditions is controlled at least in part by adjusting the amount of cooling air provided to the system and the pressure curve includes a second portion in which the temperature downstream of the burner over a second range of desired temperature conditions different from the first range is controlled at least primarily by adjusting the burner pressure; and controlling the burner pressure as a function of current air temperature downstream of said blower and delivered to said manifold according to the nominal burner pressure curve. generating a nominal burner pressure curve as a function of the amount of cooling air provided to the forehearth wherein the pressure curve includes a first portion in which the glass temperature downstream of the burner over a first range of desired temperature conditions is controlled at least in part by adjusting the amount of cooling air provided to the system and the pressure curve includes a second portion in which the temperature downstream of the burner over a second range of desired temperature conditions different from the first range is controlled at least primarily by adjusting the burner pressure; and controlling the burner pressure as a function of current air temperature downstream of said blower and delivered to said manifold according to the nominal burner pressure curve.
Method for determining a parameter of an optical device comprising at least an optical lens, the method comprising: - an optical system providing step, during which an optical system comprising a visual target, the optical device and an image acquisition module is provided in an initial configuration state, the image acquisition module comprising a camera, - a parameter determining step, during which a parameter of the optical device is determined based on the blur level of the images of the visual target acquired by the image acquisition module through the optical device in at least two different configuration states, - the method further comprises prior to the parameter determining step an optical system configuration modifying step, during which only the focus of the image acquisition module is modified such that the configuration of the optical system is modified into a modified configuration state, - a modified image acquisition step, step, during which an image of the visual target through the optical device is acquired by the image acquisition module with the optical system in the modified configuration state, - the method further comprises prior to the optical system providing step a focus setting step during which the focus of the image acquisition module is set so as to provide a sharp image of the visual target when placed at an initial distance and acquired directly by the image acquisition module, wherein - during the optical system providing step the optical device is placed as close as possible to the image acquisition module. - an optical system providing step, during which an optical system comprising a visual target, the optical device and an image acquisition module is provided in an initial configuration state, the image acquisition module comprising a camera, - a parameter determining step, during which a parameter of the optical device is determined based on the blur level of the images of the visual target acquired by the image acquisition module through the optical device in at least two different configuration states, - the method further comprises prior to the parameter determining step an optical system configuration modifying step, during which only the focus of the image acquisition module is modified such that the configuration of the optical system is modified into a modified configuration state, - a modified image acquisition step, step, during which an image of the visual target through the optical device is acquired by the image acquisition module with the optical system in the modified configuration state, - the method further comprises prior to the optical system providing step a focus setting step during which the focus of the image acquisition module is set so as to provide a sharp image of the visual target when placed at an initial distance and acquired directly by the image acquisition module, wherein - during the optical system providing step the optical device is placed as close as possible to the image acquisition module.
A system (101, 301, 402, 502, 602) for monitoring a position of a distal end (102, 302) of a tube (104, 304, 403, 503, 603) with respect to a blood vessel (106, 306) of a mammal comprising: a source (110, 310, 408, 508, 608) for generating an outgoing beam (112, 312, 410, 510, 610) of electromagnetic radiation having a predefined electromagnetic spectrum, a guideway (114, 314) for guiding the outgoing beam inside the mammal to the distal end, and for guiding an incoming beam (116, 316, 416, 522, 618) of electromagnetic radiation reflected by surroundings (118, 318) of the distal end in response to said outgoing beam to a measurement arrangement (120, 320, 412, 518, 614), the measurement arrangement for measuring a parameter (122, 322, 414, 520, 616) associated with an electromagnetic spectrum of the incoming beam, and a comparator arrangement (124, 324, 426, 524, 626) configured for comparing said parameter with a reference parameter (126, 326, 428, 526, 628) associated with a reference electromagnetic spectrum representing a predefined location of the distal end inside the blood vessel (106, 306) of the mammal. a source (110, 310, 408, 508, 608) for generating an outgoing beam (112, 312, 410, 510, 610) of electromagnetic radiation having a predefined electromagnetic spectrum, a guideway (114, 314) for guiding the outgoing beam inside the mammal to the distal end, and for guiding an incoming beam (116, 316, 416, 522, 618) of electromagnetic radiation reflected by surroundings (118, 318) of the distal end in response to said outgoing beam to a measurement arrangement (120, 320, 412, 518, 614), the measurement arrangement for measuring a parameter (122, 322, 414, 520, 616) associated with an electromagnetic spectrum of the incoming beam, and a comparator arrangement (124, 324, 426, 524, 626) configured for comparing said parameter with a reference parameter (126, 326, 428, 526, 628) associated with a reference electromagnetic spectrum representing a predefined location of the distal end inside the blood vessel (106, 306) of the mammal.
A magnetic sensor, comprising: a first plurality of magnetoresistive sensor elements coupled together as a first circuit; and a second circuit adjacent to the first circuit and configured to receive a bipolar current signal from a bipolar current source coupled to the second circuit, wherein a portion of the second circuit is adjacent to each magnetoresistive sensor element of the first plurality of magnetoresistive sensor elements, wherein the bipolar current signal is configured to generate a magnetic field to cancel at least a portion of 1/f noise generated from at least one magnetoresistive sensor element of the first plurality of magnetoresistive sensor elements, wherein the bipolar current signal is a cyclic signal including a positive portion and a negative portion different from the positive portion, wherein the first circuit has a high output and a low output in response to the bipolar current signal, and wherein the bipolar current signal is delivered at a rate of at least two times of an output data rate of an output signal of the first circuit, wherein the bipolar current signal is asymmetric with the positive portion and the negative portion occupying different percentages of each cycle of the bipolar current signal, and wherein the high output and the low output from the first circuit are sampled, added, and averaged for the cancellation of at least a portion of the 1/f noise generated from at least one magnetoresistive sensor element of the first plurality of magnetoresistive sensor elements. a first plurality of magnetoresistive sensor elements coupled together as a first circuit; and a second circuit adjacent to the first circuit and configured to receive a bipolar current signal from a bipolar current source coupled to the second circuit, wherein a portion of the second circuit is adjacent to each magnetoresistive sensor element of the first plurality of magnetoresistive sensor elements, wherein the bipolar current signal is configured to generate a magnetic field to cancel at least a portion of 1/f noise generated from at least one magnetoresistive sensor element of the first plurality of magnetoresistive sensor elements, wherein the bipolar current signal is a cyclic signal including a positive portion and a negative portion different from the positive portion, wherein the first circuit has a high output and a low output in response to the bipolar current signal, and wherein the bipolar current signal is delivered at a rate of at least two times of an output data rate of an output signal of the first circuit, wherein the bipolar current signal is asymmetric with the positive portion and the negative portion occupying different percentages of each cycle of the bipolar current signal, and wherein the high output and the low output from the first circuit are sampled, added, and averaged for the cancellation of at least a portion of the 1/f noise generated from at least one magnetoresistive sensor element of the first plurality of magnetoresistive sensor elements.
A Clustered Regularly Interspersed Short Palindromic Repeats (CRISPR)-Cas complex, comprising: - a Cas9, wherein the Cas9 has two or more nuclear localization signals; - a guide sequence linked to a tracr mate sequence, and - a tracr sequence hybridizable with all or a portion of the tracr mate sequence; wherein the guide sequence is designed to have complementarity with a target sequence in a eukaryotic cell and is capable of directing sequence-specific binding of the CRISPR complex to the target sequence in the eukaryotic cell. - a Cas9, wherein the Cas9 has two or more nuclear localization signals; - a guide sequence linked to a tracr mate sequence, and - a tracr sequence hybridizable with all or a portion of the tracr mate sequence; wherein the guide sequence is designed to have complementarity with a target sequence in a eukaryotic cell and is capable of directing sequence-specific binding of the CRISPR complex to the target sequence in the eukaryotic cell.
A method of operating a swath flap arrangement configured for a windrowing work vehicle, the swath flap arrangement including a swath flap that is supported for movement by a support structure between a raised position and a lowered position, the swath flap configured to at least partially shape a windrow of a crop material, the method comprising: receiving, by a processor of a control system from a memory element, a stored position setting that corresponds to a position of the swath flap relative to the support structure; processing, by the processor, a positioning control signal based, at least in part, on the stored position setting; and moving, with an actuator, the swath flap relative to the support structure between the raised position and the lowered position according to the positioning control signal characterized in that the method further comprising detecting, with a sensor, an actual position setting of the swath flap and saving the actual position setting as the stored position setting. receiving, by a processor of a control system from a memory element, a stored position setting that corresponds to a position of the swath flap relative to the support structure; processing, by the processor, a positioning control signal based, at least in part, on the stored position setting; and moving, with an actuator, the swath flap relative to the support structure between the raised position and the lowered position according to the positioning control signal characterized in that the method further comprising detecting, with a sensor, an actual position setting of the swath flap and saving the actual position setting as the stored position setting.
A high-strength hot-rolled steel sheet consisting of, on a mass percent basis: C: 0.06% or more and 0.13% or less, Si: less than 0.5%, Mn: more than 0.5% and 1.4% or less, P: 0.05% or less, S: 0.005% or less, N: 0.01% or less, Al: 0.1% or less, Ti: 0.05% or more and 0.25% or less, and V: more than 0.15% and 0.4% or less such that S, N, Ti, and V satisfy the following formula, optionally Nb: 0.002% or more and 0.1% or less, at least one of Cu: 0.005% or more and 0.2% or less, Ni: 0.005% or more and 0.2% or less, Cr: 0.002% or more and 0.2% or less, Mo: 0.002% or more and 0.2% or less, Sn: 0.005% or more and 0.2% or less, B: 0.0002% or more and 0.003% or less, Ca: 0.0002% or more and 0.005% or less and REM: 0.0002% or more and 0.03% or less, the remainder being Fe and incidental impurities, wherein the high-strength hot-rolled steel sheet has a microstructure in which a ferrite phase fraction is more than 90% by area, and less than 10% by area in total of at least one of pearlite, cementite, bainite, martensite and retained austenite, a carbide containing Ti is precipitated, and 70% by number or more of the carbide has a grain size of less than 9 nm. Ti * + V ≥ 0.35 wherein Ti* = Ti - N x (48/14) - S x (48/32), and S, N, Ti, and V denote the amounts (% by mass) of the corresponding elements. C: 0.06% or more and 0.13% or less, Si: less than 0.5%, Mn: more than 0.5% and 1.4% or less, P: 0.05% or less, S: 0.005% or less, N: 0.01% or less, Al: 0.1% or less, Ti: 0.05% or more and 0.25% or less, and V: more than 0.15% and 0.4% or less such that S, N, Ti, and V satisfy the following formula, optionally Nb: 0.002% or more and 0.1% or less, at least one of Cu: 0.005% or more and 0.2% or less, Ni: 0.005% or more and 0.2% or less, Cr: 0.002% or more and 0.2% or less, Mo: 0.002% or more and 0.2% or less, Sn: 0.005% or more and 0.2% or less, B: 0.0002% or more and 0.003% or less, Ca: 0.0002% or more and 0.005% or less and REM: 0.0002% or more and 0.03% or less, the remainder being Fe and incidental impurities, wherein the high-strength hot-rolled steel sheet has a microstructure in which a ferrite phase fraction is more than 90% by area, and less than 10% by area in total of at least one of pearlite, cementite, bainite, martensite and retained austenite, a carbide containing Ti is precipitated, and 70% by number or more of the carbide has a grain size of less than 9 nm. Ti * + V ≥ 0.35 wherein Ti* = Ti - N x (48/14) - S x (48/32), and S, N, Ti, and V denote the amounts (% by mass) of the corresponding elements.
A corrosion monitoring system, comprising: one or more objects configured to be coupled to respective portions of a transformer tank, the one or more objects configured to corrode before the respective portions of the transformer tank; at least one optical sensor coupled to each of the objects, the at least one optical sensor having an optical output that changes in response to strain of the object; characterized by further comprising at least one additional optical sensor having an optical output that changes in response to a temperature of the object and is not sensitive to strain; and an analyzer coupled to the at least one optical sensor, the analyzer configured to perform detecting corrosion of the transformer tank by subtracting the output of one of the at least one additional optical sensor from the output of one of the at least one optical sensor. one or more objects configured to be coupled to respective portions of a transformer tank, the one or more objects configured to corrode before the respective portions of the transformer tank; at least one optical sensor coupled to each of the objects, the at least one optical sensor having an optical output that changes in response to strain of the object; characterized by further comprising at least one additional optical sensor having an optical output that changes in response to a temperature of the object and is not sensitive to strain; and an analyzer coupled to the at least one optical sensor, the analyzer configured to perform detecting corrosion of the transformer tank by subtracting the output of one of the at least one additional optical sensor from the output of one of the at least one optical sensor.