mhurhangee/ep-ind-claims huggingface dataset:
An impedance device, comprising: an elongated body configured for at least partial insertion into a mammalian luminal organ of a patient, the elongated body having a first conductor extending therethrough; a proximal electrical unit operably connected to the elongated body and configured to deliver power along the first conductor; and a sensor substrate located in the elongated body, and at or near a distal end of the elongated body, the sensor substrate comprising: a first sensor type (120, 130); a second sensor type (120, 130) different from the first sensor type; and, a circuit module operably coupled to the first sensor and the second sensor and operable and/or configured to: a) direct operation of the first sensor type to obtain a first data type; b) direct operation of the second sensor type to obtain a second data type; and c) facilitate transmission of the first data type and/or the second data type to the proximal electrical unit. an elongated body configured for at least partial insertion into a mammalian luminal organ of a patient, the elongated body having a first conductor extending therethrough; a proximal electrical unit operably connected to the elongated body and configured to deliver power along the first conductor; and a sensor substrate located in the elongated body, and at or near a distal end of the elongated body, the sensor substrate comprising: a first sensor type (120, 130); a second sensor type (120, 130) different from the first sensor type; and, a circuit module operably coupled to the first sensor and the second sensor and operable and/or configured to: a) direct operation of the first sensor type to obtain a first data type; b) direct operation of the second sensor type to obtain a second data type; and c) facilitate transmission of the first data type and/or the second data type to the proximal electrical unit. a first sensor type (120, 130); a second sensor type (120, 130) different from the first sensor type; and, a circuit module operably coupled to the first sensor and the second sensor and operable and/or configured to: a) direct operation of the first sensor type to obtain a first data type; b) direct operation of the second sensor type to obtain a second data type; and c) facilitate transmission of the first data type and/or the second data type to the proximal electrical unit. a) direct operation of the first sensor type to obtain a first data type; b) direct operation of the second sensor type to obtain a second data type; and c) facilitate transmission of the first data type and/or the second data type to the proximal electrical unit.
Method for operating a nuclear magnetic flowmeter for determining the flow of a medium with slug flow flowing through a measuring tube with a measuring device, wherein the measuring device contains an RF circuit having external electronics and having at least one RF coil designed for generating an excitation signal for exciting the medium and/or for detecting measuring signals emitted by the medium, wherein a slug zone of the slug flow is characterized by a slug of liquid medium and the liquid medium fills the entire cross section of the measuring tube, and a film zone of the slug flow consists of a large gas bubble that occupies a dominating portion of the measuring tube cross section and a liquid film that fills the remaining part of the measuring tube cross section, wherein tuning parameters and matching parameters are determined, wherein the frequency of the RF circuit can be set using "tuning" so that resonance is achieved, and the impedance of the RF coil is adjustable to that of the external electronics for "matching" characterized in that the tuning parameters and the matching parameters are determined for a slug zone and for a film zone, that the tuning parameters and the matching parameters are set for a slug zone or that the tuning parameters and the matching parameters are set for a film zone, that the reflected power is measured over a time t, wherein the reflected power in a system set for slug zone is low for the slug zone and high for the film zone and wherein the power in a system set for film zone is low for the film zone and high for the slug zone, that the relative dwell time of the slug zone and the film zone in the RF coil as well as the relative frequency of the slug zones and film zones in the flowing medium are determined using the reflected power and that the jump in the value of the reflected power from a high value to a lower value is used as a trigger for starting measurement.
Method for manufacturing a mould element for a tyre mould using a manufacturing device of the type comprising a die and a counter-mould defining a moulding cavity in the closed position, characterized in that it comprises the following steps: - opening the manufacturing device; - placing at least one insert, produced by laser sintering, against a moulding surface of the die; - mounting at least one wedge on the die so as to bear against said insert in order to immobilise it relative to the moulding surface of the die; - closing the manufacturing device, the counter-mould pressing onto said wedge in the closed position in order to keep said insert pressed against the moulding surface of the die; - injecting aluminium into the moulding cavity of the manufacturing device; - opening the manufacturing device; - extracting from the manufacturing device the mould element provided with a moulding face formed by at least part of said insert and by the aluminium. - opening the manufacturing device; - placing at least one insert, produced by laser sintering, against a moulding surface of the die; - mounting at least one wedge on the die so as to bear against said insert in order to immobilise it relative to the moulding surface of the die; - closing the manufacturing device, the counter-mould pressing onto said wedge in the closed position in order to keep said insert pressed against the moulding surface of the die; - injecting aluminium into the moulding cavity of the manufacturing device; - opening the manufacturing device; - extracting from the manufacturing device the mould element provided with a moulding face formed by at least part of said insert and by the aluminium.
A system for administering a platelets rich plasma solution to an individual by inhalation, comprising: an inlet port connected to a connector tube configured to receive a mist of the solution; a nebulizer connected to the connector tube at the inlet port and including a sterile port for receiving the platelets rich plasma solution; a breathing mask connected to the connector tube and configured to deliver the mist to the individual; a rebreathing chamber connected to a distal end of the connector tube and configured to receive an exhaled portion of the mist from the patient and recycle at least some of the exhaled portion back to the individual; and an exhaust tube connected to the distal end of the rebreathing chamber and configured to collect an exhaust portion of the mist; and a cleaning unit connected to a distal end of the exhaust tube and configured to clean the exhaust portion of the mist. an inlet port connected to a connector tube configured to receive a mist of the solution; a nebulizer connected to the connector tube at the inlet port and including a sterile port for receiving the platelets rich plasma solution; a breathing mask connected to the connector tube and configured to deliver the mist to the individual; a rebreathing chamber connected to a distal end of the connector tube and configured to receive an exhaled portion of the mist from the patient and recycle at least some of the exhaled portion back to the individual; and an exhaust tube connected to the distal end of the rebreathing chamber and configured to collect an exhaust portion of the mist; and a cleaning unit connected to a distal end of the exhaust tube and configured to clean the exhaust portion of the mist.
Lock cylinder with a housing in which a sleeve with a cylinder core accommodated therein is mounted rotatably and the cylinder core has spring-mounted tumblers which combine with recesses arranged in the sleeve to create a form fit when a key is withdrawn, and the sleeve is coupled to a coupling element inside the housing via a release sleeve, wherein the coupling element is mounted inside the housing, and the coupling element is connected to a mounting, wherein at least one resilient spring element (18, 18') is arranged between the coupling element and the mounting, wherein the resilient spring element (18, 18') is constructed so as to be sufficiently deformable to guarantee that the cylinder core is decoupled from the coupling element if an improper object is used to create an operative connection with the cylinder core, characterized in that the coupling element comprises a pin, wherein the pin of the coupling element is guided into an opening arranged in the housing when the coupling element moves along an axis A towards the mounting, so that a rotation of the coupling element is entirely impossible if the lock cylinder is misused.
A switching device, comprising a switchgear cabinet with a switchgear cabinet housing, a switchgear disposed in the switchgear cabinet, an interface for wireless communication, and an antenna, wherein the interface is connected with the antenna and the antenna is at least partially integrated in a control element of the switchgear, the control element extending through the switchgear cabinet housing, characterized in that the interface for wireless communication and the antenna are formed as two separate parts, wherein the interface is arranged inside a housing of the switchgear.
A system for processing data, the system comprising: a glucose sensor configured to be implanted within a body; and sensor electronics configured to receive and process sensor signals output by the sensor, the sensor electronics coupled to a processor module, wherein the processor module is configured to: apply a conversion function to sensor data, the conversion function taking into account temperature correction; evaluate sensor data to determine whether a real time glucose value meets or crosses a hypoglycemic threshold settable by a user; activate a first hypoglycemic alert or alarm when the real time glucose value meets or crosses the hypoglycemic threshold; evaluate sensor data to determine whether a predicted glucose value will meet or cross a predictive hypoglycemic threshold in a time frame; activate a second hypoglycemic alert when the predicted glucose value is predicted to meet or cross the predictive hypoglycemic threshold in the time frame; characterized in that the predictive hypoglycemic threshold is not settable by the user. a glucose sensor configured to be implanted within a body; and sensor electronics configured to receive and process sensor signals output by the sensor, the sensor electronics coupled to a processor module, wherein the processor module is configured to: apply a conversion function to sensor data, the conversion function taking into account temperature correction; evaluate sensor data to determine whether a real time glucose value meets or crosses a hypoglycemic threshold settable by a user; activate a first hypoglycemic alert or alarm when the real time glucose value meets or crosses the hypoglycemic threshold; evaluate sensor data to determine whether a predicted glucose value will meet or cross a predictive hypoglycemic threshold in a time frame; activate a second hypoglycemic alert when the predicted glucose value is predicted to meet or cross the predictive hypoglycemic threshold in the time frame; characterized in that the predictive hypoglycemic threshold is not settable by the user. apply a conversion function to sensor data, the conversion function taking into account temperature correction; evaluate sensor data to determine whether a real time glucose value meets or crosses a hypoglycemic threshold settable by a user; activate a first hypoglycemic alert or alarm when the real time glucose value meets or crosses the hypoglycemic threshold; evaluate sensor data to determine whether a predicted glucose value will meet or cross a predictive hypoglycemic threshold in a time frame; activate a second hypoglycemic alert when the predicted glucose value is predicted to meet or cross the predictive hypoglycemic threshold in the time frame; characterized in that the predictive hypoglycemic threshold is not settable by the user.
Method of controlling the displacement of the push device of a pump of the syringe driver-type, the pump comprising a casing, a syringe cradle in which a syringe is placed, a push device mobile relative to the casing and capable of being driven in translation parallel to the longitudinal axis of the syringe by driving means, and clutch means (310, 311, 350, 351, 352) for engaging or disengaging the push device on the driving means, method characterized by the following steps: a) disengaging the push device from the driving means; b) detecting the presence or absence of contact between the push device and the syringe head by means of a contact sensor (710, 711, 712, 713); c) moving the push device in translation toward the syringe if there is no contact between the push device and the syringe head, detecting the contact of the push device with the syringe head by means of the contact sensor and immediately actuating means for blocking the translation movement of the push device which had been inactivated up to then. a) disengaging the push device from the driving means; b) detecting the presence or absence of contact between the push device and the syringe head by means of a contact sensor (710, 711, 712, 713); c) moving the push device in translation toward the syringe if there is no contact between the push device and the syringe head, detecting the contact of the push device with the syringe head by means of the contact sensor and immediately actuating means for blocking the translation movement of the push device which had been inactivated up to then.
A hydraulic valve arrangement for controllably operating a gas exchange valve of an internal combustion piston engine, the arrangement comprising a body part having a working space into which an operating piston is arranged, which operating piston comprises at least a first and a second concentric piston parts (16.1, 16.2), arranged slidably in respect to each other, and in which body part a first fluid chamber (14.1) is arranged bordered by radial surfaces (16.1', 16.2') of both the first and the second piston parts and having a volume that increases in response to the piston parts (16.1, 16.2) moving relative to the body part in a first direction, and a second fluid chamber (14.2) is arranged bordered by radial surface (16.2") of the second piston part having a volume that decreases in response to the second piston part moving relative to the body part in the first direction, characterized in that the movement of the second piston part (16.2) in the first direction relative to the body part is arranged independently controllable from the first piston part (16.1) by a valve (31, 40) in a fluid control system arranged to control flow of fluid from the second fluid chamber (14.2).
An indexing system of space of interest defining at least a two-dimensional object, the system comprising: 1.1 a location data extractor configured to calculate an index point for the space of interest; 1.2 a map tile number converter configured to map the index point to a tile that lies within a plurality of tiles, the tile including the at least one index point; and 1.3 an indexer configured to index the space of interest within the determined tile, 1.4 wherein the location data extractor is configured to calculate the index point by: 1.4.1 creating a minimum bounding rectangle that encompasses the space of interest; 1.4.2 determining a center of the minimum bounding rectangle; and 1.4.3 returning the center of the minimum bounding rectangle as the index point for the space of interest. 1.1 a location data extractor configured to calculate an index point for the space of interest; 1.2 a map tile number converter configured to map the index point to a tile that lies within a plurality of tiles, the tile including the at least one index point; and 1.3 an indexer configured to index the space of interest within the determined tile, 1.4 wherein the location data extractor is configured to calculate the index point by: 1.4.1 creating a minimum bounding rectangle that encompasses the space of interest; 1.4.2 determining a center of the minimum bounding rectangle; and 1.4.3 returning the center of the minimum bounding rectangle as the index point for the space of interest. 1.4.1 creating a minimum bounding rectangle that encompasses the space of interest; 1.4.2 determining a center of the minimum bounding rectangle; and 1.4.3 returning the center of the minimum bounding rectangle as the index point for the space of interest.
Coupling (10, 40) for releasably connecting a light guide to a coupling counterpart, with a coupling body (11, 41) connected to a light guide holder, with a grip sleeve which circumferentially surrounds the coupling body (11, 41) at least in parts, and with at least one locking claw (13, 13', 45, 45') that is held movably in a radially resilient manner on the coupling body (11, 41) for locking engagement behind at least one locking projection of the coupling counterpart, wherein the grip sleeve is mounted rotatably on the coupling body (11, 41), wherein the at least one locking claw (13, 13', 45, 45') can be lifted out of the locking engagement by a rotary movement of the grip sleeve, characterized in that the coupling body (11, 41) has a thread for connection to a thread of the coupling counterpart, wherein the rotary movement of the grip sleeve relative to the coupling body is limited.
PEG-IL-10 for use in the treatment or prevention of cancer in combination with mature human IL-15, wherein the PEG-IL-10 is a mixture of mono-pegylated and di-pegylated IL-10 comprising mature human IL-10 and a PEG component, wherein the PEG component: (a) has a molecular mass from about 5 kDa to about 20 kDa; and (b) pegylates at the alpha amino group of the N-terminus of at least one subunit of the IL-10 dimer; and wherein the amount of PEG-IL-10 to be administered is sufficient to maintain a mean IL-10 serum trough concentration in the range of from 1.0 ng/mL to 10 ng/mL. wherein the PEG-IL-10 is a mixture of mono-pegylated and di-pegylated IL-10 comprising mature human IL-10 and a PEG component, wherein the PEG component: (a) has a molecular mass from about 5 kDa to about 20 kDa; and (b) pegylates at the alpha amino group of the N-terminus of at least one subunit of the IL-10 dimer; (a) has a molecular mass from about 5 kDa to about 20 kDa; and (b) pegylates at the alpha amino group of the N-terminus of at least one subunit of the IL-10 dimer; and wherein the amount of PEG-IL-10 to be administered is sufficient to maintain a mean IL-10 serum trough concentration in the range of from 1.0 ng/mL to 10 ng/mL.
A power tool, comprising: a cutting unit that performs a cutting action; and a cutting action input unit for turning the cutting action on and off, wherein the cutting action input unit, when turned on, causes the cutting unit to move in a direction of an end position of the cutting action, characterized in that the cutting action input unit, when turned off, causes the cutting unit to stop moving in a case where it is detected that the cutting action has not ended at a time when the cutting action input unit is turned off, and to move in a direction of a standby position prior to a start of the cutting action in a case where it is detected that the cutting action has ended at the time when the cutting action input unit is turned off. a cutting unit that performs a cutting action; and a cutting action input unit for turning the cutting action on and off, wherein the cutting action input unit, when turned on, causes the cutting unit to move in a direction of an end position of the cutting action, characterized in that the cutting action input unit, when turned off, causes the cutting unit to stop moving in a case where it is detected that the cutting action has not ended at a time when the cutting action input unit is turned off, and to move in a direction of a standby position prior to a start of the cutting action in a case where it is detected that the cutting action has ended at the time when the cutting action input unit is turned off.
Adjusting device for adjusting a plurality of guide vanes of an engine, wherein - the adjusting device comprises at least one adjustably mounted adjusting element (30a, 30b, 30c) coupled to the guide vanes, a connection element (32a, 32b, 32c) coupled to the adjusting element (30a, 30b, 30c), and a crankshaft for controlling an adjusting movement of the adjusting element, and - the crankshaft has at least one coupling element (20.1-20.4; 92.1, 92.2) which is coupled to the connection element (32a, 32b, 32c) and on which the connection element (32a, 32b, 32c) is articulated in order to convert a rotary movement of the crankshaft about a longitudinal axis of the crankshaft into an adjusting movement of the adjusting element (30a, 30b, 30c) for adjusting the guide vanes, wherein the crankshaft is of modular design with at least two shaft modules (6.1 - 6.4, 7A, 7B; 9.1, 9.2) which are arranged behind one another along the longitudinal axis of the crankshaft and can be fixed in different rotational positions about the longitudinal axis relative to one another via at least one toothing (608A, 608B, 78, 88; 98A, 98B), and the coupling element (20.1-20.4; 92.1, 92.2) is provided on one of the at least two shaft modules (6.1 - 6.4, 7A, 7B; 9.1, 9.2) of the crankshaft, characterized in that - at least two shaft modules (6.1 - 6.4) are fixed in a rotational position about the longitudinal axis of the crankshaft relative to one another via an intermediate piece (8.1 - 8.5) which is designed as a gear ring (8.1 - 8.5) and which engages in a first toothing (608A, 608B, 78) of the one shaft module (6.1 - 6.4, 7A, 7B) and a second toothing (608B, 78, 608A) of the other shaft module (6.1 - 6.4, 7A, 7B), - and/or at least two shaft modules (9.1, 9.2) are fixed in a rotational position about the longitudinal axis of the crankshaft relative to one another via a Hirth toothing (98A, 98B). - the adjusting device comprises at least one adjustably mounted adjusting element (30a, 30b, 30c) coupled to the guide vanes, a connection element (32a, 32b, 32c) coupled to the adjusting element (30a, 30b, 30c), and a crankshaft for controlling an adjusting movement of the adjusting element, and - the crankshaft has at least one coupling element (20.1-20.4; 92.1, 92.2) which is coupled to the connection element (32a, 32b, 32c) and on which the connection element (32a, 32b, 32c) is articulated in order to convert a rotary movement of the crankshaft about a longitudinal axis of the crankshaft into an adjusting movement of the adjusting element (30a, 30b, 30c) for adjusting the guide vanes, - at least two shaft modules (6.1 - 6.4) are fixed in a rotational position about the longitudinal axis of the crankshaft relative to one another via an intermediate piece (8.1 - 8.5) which is designed as a gear ring (8.1 - 8.5) and which engages in a first toothing (608A, 608B, 78) of the one shaft module (6.1 - 6.4, 7A, 7B) and a second toothing (608B, 78, 608A) of the other shaft module (6.1 - 6.4, 7A, 7B), - and/or at least two shaft modules (9.1, 9.2) are fixed in a rotational position about the longitudinal axis of the crankshaft relative to one another via a Hirth toothing (98A, 98B).