mhurhangee/ep-ind-claims huggingface dataset:
A vascular filter system comprising: a) a vascular filter comprising: i) an attachment ring; ii) a plurality of attachment barbs coupled to the attachment ring; iii) a plurality of filter strand threads coupled to the attachment ring and forming a filter portion having filter openings (46; 46'; 46"), wherein the filter portion is coupled to the attachment ring; b) a deployment sheath having a distal end opening; c) a plurality of tensors, each of said plurality of tensors comprising: an extended end; a tensor coupler attached to said extended end; wherein the plurality of tensors are retained within the deployment sheath; wherein the tensor couplers are coupled with the attachment ring; wherein each of the tensor couplers comprise a coupler slot that receives an inside surface of the attachment ring and extends around the attachment ring; and wherein the plurality of tensors are shape memory material and wherein each is configured to extend radially outward from the distal end opening of the deployment sheath to press the attachment ring, and attachment barbs coupled thereto, against a vessel wall. a) a vascular filter comprising: i) an attachment ring; ii) a plurality of attachment barbs coupled to the attachment ring; iii) a plurality of filter strand threads coupled to the attachment ring and forming a filter portion having filter openings (46; 46'; 46"), wherein the filter portion is coupled to the attachment ring; i) an attachment ring; ii) a plurality of attachment barbs coupled to the attachment ring; iii) a plurality of filter strand threads coupled to the attachment ring and forming a filter portion having filter openings (46; 46'; 46"), b) a deployment sheath having a distal end opening; c) a plurality of tensors, each of said plurality of tensors comprising: an extended end; a tensor coupler attached to said extended end; an extended end; a tensor coupler attached to said extended end; wherein the plurality of tensors are retained within the deployment sheath; wherein the tensor couplers are coupled with the attachment ring; wherein each of the tensor couplers comprise a coupler slot that receives an inside surface of the attachment ring and extends around the attachment ring; and wherein the plurality of tensors are shape memory material and wherein each is configured to extend radially outward from the distal end opening of the deployment sheath to press the attachment ring, and attachment barbs coupled thereto, against a vessel wall.
Tensioning device for the tension of a catenary, in particular for electric cables of railway lines, undergrounds and trolleybuses, comprising - at least one crosspiece extending along a main direction (X-X), fitted with connection means to an associable support structure, to support the device, - at least one fixed pulley being joined to the crosspiece, having a rotation axis fixed in relation to said main direction (X-X), - at least one mobile pulley, said mobile pulley being joined to a mobile carriage parallel to the main direction (X-X); the rotation axis of the mobile pulley moving parallel to said main direction (X-X), - the mobile carriage being mechanically connected to an anchorage for the electric cable of a railway line to be kept taut, - at least one wire connected, at a first end, to said mobile carriage and, at a second end, to a counterweight to ensure the tension of the electric cable of the railway line, - the wire being at least partially wound around said fixed pulley and said mobile pulley, characterised by the fact that - the tensioning device comprises at least one longitudinal member, extending parallel to said main direction (X-X), the longitudinal member being mechanically attached to said crosspiece, - the mobile carriage is mechanically connected to at least one support stem, - wherein the device comprises at least one position sensor, suitable to detect the relative position between the support stem and the longitudinal member to measure the tensional value of the electric cable. - at least one crosspiece extending along a main direction (X-X), fitted with connection means to an associable support structure, to support the device, - at least one fixed pulley being joined to the crosspiece, having a rotation axis fixed in relation to said main direction (X-X), - at least one mobile pulley, said mobile pulley being joined to a mobile carriage parallel to the main direction (X-X); the rotation axis of the mobile pulley moving parallel to said main direction (X-X), - the mobile carriage being mechanically connected to an anchorage for the electric cable of a railway line to be kept taut, - at least one wire connected, at a first end, to said mobile carriage and, at a second end, to a counterweight to ensure the tension of the electric cable of the railway line, - the wire being at least partially wound around said fixed pulley and said mobile pulley, characterised by the fact that - the tensioning device comprises at least one longitudinal member, extending parallel to said main direction (X-X), the longitudinal member being mechanically attached to said crosspiece, - the mobile carriage is mechanically connected to at least one support stem, - wherein the device comprises at least one position sensor, suitable to detect the relative position between the support stem and the longitudinal member to measure the tensional value of the electric cable.
A fluid heater, including: - a heater core including first and second elongate co-extensive heater members, - a conduit with an input end for fluid to be heated and an output end for heated fluid, the conduit wound onto the heater members (121, 122) in a winding pattern including a set of first winding loops wound around the first heater member and a set of second winding loops wound around the second heater member, the first winding loops interleaved with the second winding loops, characterised in that the fluid heater includes centering members (181, 182) between the first winding loops and the first heater member and between the second winding loops and the second heater member. - a heater core including first and second elongate co-extensive heater members, - a conduit with an input end for fluid to be heated and an output end for heated fluid, the conduit wound onto the heater members (121, 122) in a winding pattern including a set of first winding loops wound around the first heater member and a set of second winding loops wound around the second heater member, the first winding loops interleaved with the second winding loops,
An integrated MEMS accelerometric sensor, comprising: a suspended region mobile with respect to a supporting structure; and a sensing assembly (37; 58; 69; 79) coupled to the suspended region, configured to detect a movement of the suspended region with respect to the supporting structure; wherein the suspended region has a variable geometry, variable between at least two configurations associated with respective centroids, different from each other, the suspended region comprises a first region (22; 62; 72) rotatably anchored to the supporting structure, and a second region (23; 63; 73) coupled to the first region through elastic connection elements configured to allow a relative movement of the second region (23; 63; 73) with respect to the first region (22; 62; 72); characterized in that the sensor further comprises a driving assembly coupled to the second region (23; 63) to control the relative movement, the driving assembly being configured to receive a variable driving voltage to control the relative movement. a suspended region mobile with respect to a supporting structure; and a sensing assembly (37; 58; 69; 79) coupled to the suspended region, configured to detect a movement of the suspended region with respect to the supporting structure; wherein the suspended region has a variable geometry, variable between at least two configurations associated with respective centroids, different from each other, the suspended region comprises a first region (22; 62; 72) rotatably anchored to the supporting structure, and a second region (23; 63; 73) coupled to the first region through elastic connection elements configured to allow a relative movement of the second region (23; 63; 73) with respect to the first region (22; 62; 72); characterized in that the sensor further comprises a driving assembly coupled to the second region (23; 63) to control the relative movement, the driving assembly being configured to receive a variable driving voltage to control the relative movement.
Method for planning movements for a servo press, wherein at least one transport apparatus for moving one or more goods to be processed by the servo press is provided in a manner spatially integrated into the servo press, including the following steps: - ascertaining a minimum transfer time and a minimum return time for a movement cycle of the transport apparatus; - calculating a servo press movement profile, wherein the calculation includes parameters set by the servo press and/or the forming process, a geometric press opening and a geometric press closure and the minimum transfer time and the minimum return time, wherein a time phase emerging from the geometric press opening and the geometric press closure enables a collision-free movement of the transport apparatus and of the servo press, taking account of geometric conditions of the transport apparatus and servo press, wherein the servo press movement profile is optimized towards a goal of a maximum servo press performance, taking account of energy-optimizing delays. - ascertaining a minimum transfer time and a minimum return time for a movement cycle of the transport apparatus; - calculating a servo press movement profile, wherein the calculation includes parameters set by the servo press and/or the forming process, a geometric press opening and a geometric press closure and the minimum transfer time and the minimum return time, wherein a time phase emerging from the geometric press opening and the geometric press closure enables a collision-free movement of the transport apparatus and of the servo press, taking account of geometric conditions of the transport apparatus and servo press, wherein the servo press movement profile is optimized towards a goal of a maximum servo press performance, taking account of energy-optimizing delays.
A rotary press for the production of single-layered or multilayered tablets, comprising at least one filling device for filling a pressing material into openings of a die plate, at least one filling station, at least one metering station for the lower punches, at least one pressing station, and at least one ejection station having tablet stripper and tablet discharge chute, wherein the at least one pressing station comprises respectively an upper and a lower pressure roller and respectively an upper and a lower cam track, wherein the cam tracks interact with upper and lower punches characterized in that at least one vertically-adjustable upper combination cam, comprising a pull-down cam (1.1), an upper initial pressure rail (1.2), a safety rail (1.3), and a pull-up cam is provided arranged below the upper pressure roller, and the lower cam track comprises a vertically-adjustable lower initial pressure rail and an integral ejection cam, which are provided attached below the lower pressure roller.
An IR thermal image analyser which enables discrimination between defective and non-defective regions of a structure with the use of an IR thermal image of the structure where a temperature gradient exists taken by an IR camera, comprising an image processing unit and an image display unit for displaying the image produced by the image processing unit, characterized in that the image processing unit is adapted to produce an average temperature distribution image by performing moving average processing in which an average temperature is computed sequentially for each of pixel groups each consisting of a predetermined number of pixels in the IR thermal image, and to produce a temperature difference image indicating distribution of a temperature variation other than a temperature gradient by computing a temperature difference at a same pixel between the IR thermal image and the average temperature distribution image.
Heat exchanger comprising: at least a first module and a second module (12, 22, 32, 42, 52, 62, 72) for heat exchange between a first fluid medium and a second fluid medium, wherein the first fluid medium can be conducted through a closed channel system separately from the second fluid medium, wherein the second fluid medium can flow around the closed channel system, and wherein the second fluid medium is gaseous; a first wetting device for the first module; and a second wetting device (14, 24, 34, 44, 54, 64, 74) for the second module; wherein by means of the first and second wetting devices the first and second modules can be wetted with a third fluid medium; wherein the first wetting device for the first module can be actuated independently of the second wetting device (14, 24, 34, 44, 54, 64, 74) for the second module (12, 22, 32, 42, 52, 62, 72); and a temperature control for adjusting the cooling capacity by connecting each of the first or second wetting devices (4, 14, 24, 34, 44, 54, 64, 74); characterized in that the temperature control comprises a temperature measuring device which detects the temperature of the second medium. at least a first module and a second module (12, 22, 32, 42, 52, 62, 72) for heat exchange between a first fluid medium and a second fluid medium, wherein the first fluid medium can be conducted through a closed channel system separately from the second fluid medium, wherein the second fluid medium can flow around the closed channel system, and wherein the second fluid medium is gaseous; a first wetting device for the first module; and a second wetting device (14, 24, 34, 44, 54, 64, 74) for the second module; wherein by means of the first and second wetting devices the first and second modules can be wetted with a third fluid medium; wherein the first wetting device for the first module can be actuated independently of the second wetting device (14, 24, 34, 44, 54, 64, 74) for the second module (12, 22, 32, 42, 52, 62, 72); and a temperature control for adjusting the cooling capacity by connecting each of the first or second wetting devices (4, 14, 24, 34, 44, 54, 64, 74); characterized in that the temperature control comprises a temperature measuring device which detects the temperature of the second medium.
A method for determining ocular and optical measurements for the fabrication and mounting of lenses of corrective spectacles for a user, assisted by a computer, a test object and a calibrated camera, these measurements including at least one of the following measurements: pupillary distance, monopupillary distance, heights, pantoscopic angle, using a protocol of three-dimensional reconstruction of the eye system of the user by modelling the eye system, characterized in that the test object consists of an object with known dimensions and selected from a list of standardized objects comprising a bank card, a loyalty card with a bank card format, a compact disc, a pair of spectacles, the test object being held secured to the face without being attached to a pair of spectacles, the method comprising: - a step of modelling the translation and the rotation of the movement of the head of the user through the calculation of the geometric transformation comprising a 3D translation (T M) and a 3D rotation (R M) undergone by all of the points of the test object in each acquired image, - a step which may be integrated to the first one consisting in finding the values of the global variables comprising a rigid 3D translation (T SM), a rigid 3D rotation (R SM), a radius (hdi) of the disc representing the iris and a distance (hpd) between the centre of the eye system and the centre of rotation of each eye, as well as the values of the rotation of the irises about the centres of the eyes for each acquired image - a step of determining at least one ocular or optical measurement in the eye system reconstructed in three dimensions. - a step of modelling the translation and the rotation of the movement of the head of the user through the calculation of the geometric transformation comprising a 3D translation (T M) and a 3D rotation (R M) undergone by all of the points of the test object in each acquired image, - a step which may be integrated to the first one consisting in finding the values of the global variables comprising a rigid 3D translation (T SM), a rigid 3D rotation (R SM), a radius (hdi) of the disc representing the iris and a distance (hpd) between the centre of the eye system and the centre of rotation of each eye, as well as the values of the rotation of the irises about the centres of the eyes for each acquired image - a step of determining at least one ocular or optical measurement in the eye system reconstructed in three dimensions.
A method performed by a network node associated with a cell in a wireless communication system, the method comprising: generating resource location information identifying one or more candidate time-frequency resource locations for a common control channel utilized in the cell; transmitting the resource location information to one or more user equipments, UEs; selecting a time-frequency resource location of the one or more candidate time-frequency resource locations for the common control channel; transmitting control signaling to the one or more UEs over the selected time-frequency resource, wherein the control signaling comprises an uplink opportunity indicator, the uplink opportunity indicator identifying a time period during which an uplink transmission opportunity exists for the one or more UEs, wherein a UE of the one or more UEs is configured with periodic CSI reporting; and receiving a channel state indicator, CSI, report transmitted during the identified time period by at least one of the one or more UEs responsive to transmitting the control signaling comprising the uplink opportunity indicator, wherein the CSI report is received from the UE when the periodic instant happens only if the common control channel indicates an uplink. generating resource location information identifying one or more candidate time-frequency resource locations for a common control channel utilized in the cell; transmitting the resource location information to one or more user equipments, UEs; selecting a time-frequency resource location of the one or more candidate time-frequency resource locations for the common control channel; transmitting control signaling to the one or more UEs over the selected time-frequency resource, wherein the control signaling comprises an uplink opportunity indicator, the uplink opportunity indicator identifying a time period during which an uplink transmission opportunity exists for the one or more UEs, wherein a UE of the one or more UEs is configured with periodic CSI reporting; and receiving a channel state indicator, CSI, report transmitted during the identified time period by at least one of the one or more UEs responsive to transmitting the control signaling comprising the uplink opportunity indicator, wherein the CSI report is received from the UE when the periodic instant happens only if the common control channel indicates an uplink.
A diagnosis method for diagnosing a state of a motor, the method characterized by: a setting step in which a non-rotating voltage signal that causes a rotation speed of the motor to become 0 is set, the non-rotating voltage signal including a d-axis voltage command value (vd*) and a q-axis command value (vq*); an application step (S903, S915) in which voltages calculated on the basis of the non-rotating voltage signal are respectively applied to the motor; a measurement step in which a current (i d) supplied to the motor, to which the voltages have been applied by the application step (S903, S915), is measured; a calculation step (S905, S913) in which an electrical characteristic of the motor is calculated on the basis of the current (i d) measured by the measurement step; and a determination step (S907, S917, S961) in which an abnormality of the motor is determined on the basis of the electrical characteristic of the motor calculated by the calculation step (S905, S913) and a parameter related to the non-rotating voltage signal. a setting step in which a non-rotating voltage signal that causes a rotation speed of the motor to become 0 is set, the non-rotating voltage signal including a d-axis voltage command value (vd*) and a q-axis command value (vq*); an application step (S903, S915) in which voltages calculated on the basis of the non-rotating voltage signal are respectively applied to the motor; a measurement step in which a current (i d) supplied to the motor, to which the voltages have been applied by the application step (S903, S915), is measured; a calculation step (S905, S913) in which an electrical characteristic of the motor is calculated on the basis of the current (i d) measured by the measurement step; and a determination step (S907, S917, S961) in which an abnormality of the motor is determined on the basis of the electrical characteristic of the motor calculated by the calculation step (S905, S913) and a parameter related to the non-rotating voltage signal.
A method of making silver nanoparticles, comprising combining: a solvent; a stabilizer; a silver compound; and a reducing agent, wherein the reducing agent is selected from tertiary, secondary and primary amines; tertiary, secondary and primary diamines; homopolymers or copolymers having primary amine, secondary amine and tertiary amine moieties; and diethyl toluamide (DEET). a solvent; a stabilizer; a silver compound; and a reducing agent, wherein the reducing agent is selected from tertiary, secondary and primary amines; tertiary, secondary and primary diamines; homopolymers or copolymers having primary amine, secondary amine and tertiary amine moieties; and diethyl toluamide (DEET).
An aerosol-generating article (100, 200, 300) comprising: an aerosol-forming substrate part (110, 210, 310); and a cooling part (120, 230, 320) disposed downstream of the aerosol-forming substrate part (110, 210, 310) to cool an aerosol formed in the aerosol-forming substrate part (110, 210, 310), wherein a sheet-type material is disposed on an inner wall of the cooling part (120, 230, 320), and the sheet-type material includes a polysaccharide material and a flavoring, characterized in that the cooling part (120, 230, 320) is a tubular structure in which a hollow is formed, wherein the sheet-type material is disposed on an inner wall of the hollow. an aerosol-forming substrate part (110, 210, 310); and a cooling part (120, 230, 320) disposed downstream of the aerosol-forming substrate part (110, 210, 310) to cool an aerosol formed in the aerosol-forming substrate part (110, 210, 310), wherein a sheet-type material is disposed on an inner wall of the cooling part (120, 230, 320), and the sheet-type material includes a polysaccharide material and a flavoring, characterized in that the cooling part (120, 230, 320) is a tubular structure in which a hollow is formed, wherein the sheet-type material is disposed on an inner wall of the hollow.
A Crystal Form A of the compound of formula, wherein the Crystal Form A has an X-ray powder diffraction pattern having characteristic diffraction peaks at the following 2θ angles: 8.10±0.20°, 18.33±0.20° and 22.63±0.20° at Cu kα radiation