mhurhangee/ep-ind-claims huggingface dataset:
Method for the geometrical analysis of scan data from oral structures by means of a computer, comprising the steps of - selecting a number of parameterized tooth models of desired tooth types according to the scan data to be analyzed, whereby the parameterization is performed on the basis of model parameters comprising position parameters and/or shape parameters and line parameters, and whereby each tooth model comprises at least one boundary line (LS, LP) whose path is defined by the line parameters and which divides a tooth model in at least one active adjustment area and at least one inactive adjustment area, - adjusting the tooth models and their boundary lines (LS, LP) to the scan data for individualization, whereby the individualization is performed by automatic variation of model parameters, and whereby the active adjustment areas of the tooth models are weighted more than the inactive adjustment areas, - automatically segmenting the scan data on the basis of the individualized tooth models and their individualized boundary lines (LS, LP) and/or determining at least one boundary line (LS, LP) in the scan data. - selecting a number of parameterized tooth models of desired tooth types according to the scan data to be analyzed, whereby the parameterization is performed on the basis of model parameters comprising position parameters and/or shape parameters and line parameters, and whereby each tooth model comprises at least one boundary line (LS, LP) whose path is defined by the line parameters and which divides a tooth model in at least one active adjustment area and at least one inactive adjustment area, - adjusting the tooth models and their boundary lines (LS, LP) to the scan data for individualization, whereby the individualization is performed by automatic variation of model parameters, and whereby the active adjustment areas of the tooth models are weighted more than the inactive adjustment areas, - automatically segmenting the scan data on the basis of the individualized tooth models and their individualized boundary lines (LS, LP) and/or determining at least one boundary line (LS, LP) in the scan data.
An apparatus configured to facilitate monitoring of gas in a therapeutic gas delivery system with a catalytic sensor; the gas delivery system comprising a pressure generator having an inlet and an outlet, and a gas delivery flow path configured to communicate the gas between the pressure generator and a subject; the apparatus comprising: a receiver body configured to receive the catalytic sensor such that the catalytic sensor removably couples with the receiver body, the receiver body located outside the gas delivery flow path; a delivery port formed by the receiver body configured to receive a portion of gas obtained from the gas delivery system that has passed through the pressure generator outlet and guide the received portion of gas toward the catalytic sensor; and a return port formed by the receiver body configured to exhaust the received portion of gas from the receiver body, the return port coupled to the gas delivery system such that the exhausted gas is returned to the gas delivery system through the pressure generator inlet. a receiver body configured to receive the catalytic sensor such that the catalytic sensor removably couples with the receiver body, the receiver body located outside the gas delivery flow path; a delivery port formed by the receiver body configured to receive a portion of gas obtained from the gas delivery system that has passed through the pressure generator outlet and guide the received portion of gas toward the catalytic sensor; and a return port formed by the receiver body configured to exhaust the received portion of gas from the receiver body, the return port coupled to the gas delivery system such that the exhausted gas is returned to the gas delivery system through the pressure generator inlet.
A method for Global Server Load Balancing, GSLB, of services for a domain, the method comprising: (a) executing, by a device intermediary to a plurality of clients and a plurality of servers, a first GSLB virtual server for global load balancing a plurality of services for a site domain name; (b) executing, by the device, a second GSLB virtual server for global load balancing a plurality of services for the same site domain name as the first GSLB virtual server; characterised in that: the method provides GSLB of co-existing IPv4 and IPv6 services for the domain; the first GSLB virtual server load balances a plurality of IPv6 based services for the site domain name; and the second GSLB virtual server load balances a plurality of IPv4 based services for the site domain name; the method further characterised by: (c) receiving, by the device from a client of the plurality of clients, a domain name system query; (d) determining, by the device, an IP type of the DNS query, the IP type being either IPv4 or IPv6; and (e) forwarding, by the device, the DNS query to one of the first GSLB virtual server or the second GSLB virtual server based on the determined IP type. (a) executing, by a device intermediary to a plurality of clients and a plurality of servers, a first GSLB virtual server for global load balancing a plurality of services for a site domain name; (b) executing, by the device, a second GSLB virtual server for global load balancing a plurality of services for the same site domain name as the first GSLB virtual server; characterised in that: the method provides GSLB of co-existing IPv4 and IPv6 services for the domain; the first GSLB virtual server load balances a plurality of IPv6 based services for the site domain name; and the second GSLB virtual server load balances a plurality of IPv4 based services for the site domain name; the method further characterised by: the method provides GSLB of co-existing IPv4 and IPv6 services for the domain; the first GSLB virtual server load balances a plurality of IPv6 based services for the site domain name; and the second GSLB virtual server load balances a plurality of IPv4 based services for the site domain name; the method further characterised by: (c) receiving, by the device from a client of the plurality of clients, a domain name system query; (d) determining, by the device, an IP type of the DNS query, the IP type being either IPv4 or IPv6; and (e) forwarding, by the device, the DNS query to one of the first GSLB virtual server or the second GSLB virtual server based on the determined IP type.
A method for supplying a plasma treatment device for liquid effluents, wherein the device comprises a casing defining a treatment volume and a first electrode and a second electrode which face into said treatment volume, the method comprising the steps of: - providing a supply source coupled to a pulse generator including a high-voltage generator and a nanopulse generator; - connecting said first electrode to a high-voltage electrode of said nanopulse generator; - providing a high-voltage switch having a variable width discharge gap comprised between a third electrode and a fourth electrode, wherein said third electrode is connected to said second electrode, and said fourth electrode is connected to a ground electrode of said nanopulse generator; and - supplying a circuit of said nanopulse generator and activating one or more discharges thereof so as to generate corresponding one or more voltage pulses resulting in corresponding one or more electric discharges between said first electrode and said second electrode, wherein each electric discharge occurs when a voltage value of said voltage pulse reaches a threshold value that causes dielectric breakdown in said variable width discharge gap, the method further including modulating a peak voltage value of each voltage pulse, and the frequency of successive voltage pulses by variation of the width of the discharge gap of said high-voltage switch, wherein each voltage pulse has a duration comprised between 10 ns and 100 μs, and wherein each voltage pulse has and amplitude comprised between 1 and 110 kV. - providing a supply source coupled to a pulse generator including a high-voltage generator and a nanopulse generator; - connecting said first electrode to a high-voltage electrode of said nanopulse generator; - providing a high-voltage switch having a variable width discharge gap comprised between a third electrode and a fourth electrode, wherein said third electrode is connected to said second electrode, and said fourth electrode is connected to a ground electrode of said nanopulse generator; and - supplying a circuit of said nanopulse generator and activating one or more discharges thereof so as to generate corresponding one or more voltage pulses resulting in corresponding one or more electric discharges between said first electrode and said second electrode,
Method for analysis of a liquid with a sampling unit (100; 300; 400; 600; 700), wherein the sampling unit (100; 300; 400; 600; 700) is adapted to be fitted into a system which contains or transports a liquid, and wherein the sampling unit (100; 300; 400; 600; 700) comprises a wall section (317; 417; 617; 717) which partly surrounds a cavity (301; 401; 601; 701) adapted to be filled with liquid, an opening (303; 403; 603; 703) equipped with a blocking element (305; 405; 605; 705; 720), which is adapted to be in contact with the liquid in the system, which blocking element (305; 405; 605; 705; 720) prevents the liquid from flowing in or out of the cavity at a substantially stable pressure in the system, but allows the liquid to flow into the cavity (301; 401; 601; 701) when the pressure in the system increases from a resting pressure to an operating pressure, and out of the cavity when the pressure in the system drops back from the operating pressure to the resting pressure, wherein the method comprises the steps of a) filling the sampling unit (100; 300; 400; 600; 700) with a starting liquid; b) placing or fitting the sampling unit (100; 300; 400; 600; 700) into a system (4, 19, 21) which contains or transports a liquid and in which the liquid is subjected to pressure variations between a resting pressure and an operating pressure, which is higher than the resting pressure; c) increasing the pressure from the resting pressure to the operating pressure to cause a flow of the liquid in the system (4, 19, 21) into the sampling unit (100; 300; 400; 600; 700); d) reducing the pressure from the operating pressure to the resting pressure to cause a flow of liquid out of the sampling unit (100; 300; 400; 600; 700); e)removing the sampling unit (100; 300; 400; 600; 700) from the system (4, 19, 21) after a time period; f) removing the liquid accumulated in the sampling unit (100; 300; 400; 600; 700), and g) analysing the level of a substance in the liquid with an analysis method adapted to the substance to be analysed. a) filling the sampling unit (100; 300; 400; 600; 700) with a starting liquid; b) placing or fitting the sampling unit (100; 300; 400; 600; 700) into a system (4, 19, 21) which contains or transports a liquid and in which the liquid is subjected to pressure variations between a resting pressure and an operating pressure, which is higher than the resting pressure; c) increasing the pressure from the resting pressure to the operating pressure to cause a flow of the liquid in the system (4, 19, 21) into the sampling unit (100; 300; 400; 600; 700); d) reducing the pressure from the operating pressure to the resting pressure to cause a flow of liquid out of the sampling unit (100; 300; 400; 600; 700); e)removing the sampling unit (100; 300; 400; 600; 700) from the system (4, 19, 21) after a time period; f) removing the liquid accumulated in the sampling unit (100; 300; 400; 600; 700), and g) analysing the level of a substance in the liquid with an analysis method adapted to the substance to be analysed.
A storage and mixing system for pasty two-component polymethyl methacrylate bone cements, said storage and mixing system comprising a tubular cartridge with a cylindrical interior, a cartridge head that closes one end of the tubular cartridge, a partition wall axially disposed in the cylindrical interior of the cartridge, wherein said partition wall is connected to the circumferential surface of the cylindrical interior of the cartridge and wherein the partition wall divides the cylindrical interior of the cartridge delimited by the cartridge head into two spatially separate cavities (3, 4), wherein the first cavity includes a first pasty cement component and the separate second cavity includes a second pasty cement component, two delivery plungers (5, 6) disposed movably in the axial direction in the two cavities (3, 4) of the cartridge, wherein said delivery plungers (5, 6) close the two cavities (3, 4) on the side of the cavities (3, 4) opposite the cartridge head, wherein the delivery plungers (5, 6) on the back side opposite the cartridge head are connected via a connecting means, wherein a wedge or cone having a cutting edge on the front side of the wedge or cone facing the cartridge head is disposed on the connecting means, such that said cutting edge cuts open the partition wall when the delivery plungers (5, 6) are advanced towards the cartridge head in the cavities (3, 4) and the wedge or cone presses the cut open parts of the partition wall towards the inner wall of the cartridge.
A method of projecting an image light field to an eye of a viewer, the method comprising: modulating, by a controller, an intensity of a light beam in a sequence of time slots, each time slot of the sequence of time slots corresponding to a respective field angle of the image light field, the intensity of the light beam in each time slot of the sequence of time slots corresponding to an intensity of the image light field at the respective field angle; propagating the light beam onto a dynamic input coupling grating, ICG,; controlling the dynamic ICG, by the controller, to diffract a respective portion of the light beam into a waveguide at a respective angle corresponding to the respective field angle for each time slot of the sequence of time slots; and directing each respective portion of the light beam out of the waveguide toward the eye at the respective field angle, thereby projecting the image light field to the eye of the viewer. modulating, by a controller, an intensity of a light beam in a sequence of time slots, each time slot of the sequence of time slots corresponding to a respective field angle of the image light field, the intensity of the light beam in each time slot of the sequence of time slots corresponding to an intensity of the image light field at the respective field angle; propagating the light beam onto a dynamic input coupling grating, ICG,; controlling the dynamic ICG, by the controller, to diffract a respective portion of the light beam into a waveguide at a respective angle corresponding to the respective field angle for each time slot of the sequence of time slots; and directing each respective portion of the light beam out of the waveguide toward the eye at the respective field angle, thereby projecting the image light field to the eye of the viewer.
Rotor for an electric machine, wherein the rotor is rotatable about an axis of rotation and wherein the rotor has on its radial outer surface a plurality of permanent magnets for forming at least one magnetic pole pair, preferably two or more magnetic pole pairs, wherein the rotor has an inner part which comprises a soft magnetic or an amagnetic material,wherein the inner part has a bore running along the axis of rotation for receiving a shaft, characterised in that the rotor has, at least in sections, radially further inward than the plurality of permanent magnets, an anisotropically soft magnetic sintered material having an easy direction and a hard direction, wherein the inner part, viewed in the axis of rotation, in an n-pole rotor has the cross section of a (2*n)-cornered polygon, and n is greater than or equal to four, wherein the (2*n)-cornered polygon is a regular n-cornered polygon whose n corners are each replaced by bevels such that the (2*n)-cornered polygon has n long sides and n short sides, wherein the anisotropically soft magnetic sintered material is arranged, starting from the at least one permanent magnet of the respective magnetic pole, along the respective d-axis towards a respective long side of the inner part, wherein the easy direction of the anisotropically soft magnetic sintered material is oriented along the respective d-axis.
A threshing unit for a combine harvester, having at least three drums (12, 13, 14) provided for processing harvested crop, the drums comprising a threshing drum provided for threshing the harvested crop, as well as at least two drums (13, 14) downstream of the threshing drum in a direction for feeding the harvested crop through the threshing unit, the drums (12, 13, 14) having a respective diameter (D12, D13, D14) wherein the diameter of the threshing drum is the greatest, characterized in that • the drums (12, 13, 14) are mounted on a notional line which is approximately concave and is upwardly inclined in the feed direction, and • the diameter (D13, D14) of the drums (13, 14) downstream of the threshing drum in the feed direction successively decreases. • the drums (12, 13, 14) are mounted on a notional line which is approximately concave and is upwardly inclined in the feed direction, and • the diameter (D13, D14) of the drums (13, 14) downstream of the threshing drum in the feed direction successively decreases.
Pneumatic vehicle tyre, in particular utility-vehicle tyre, having a tread with at least one profile rib which runs around in a circumferential direction, is delimited on at least one side by a circumferential channel formed to a profile depth (T 1) and is traversed by sipes, said sipes, in plan view, at least in groups, extending parallel to one another and extending at an angle of 0° to 50° to the axial direction and having a width (b E) of 0.4 mm to 3.0 mm, wherein each sipe has a sipe main portion and opens out by way of a respective sipe edge portion into each circumferential channel that delimits the profile rib, wherein the sipe main portion and the sipe edge portion have respective depths (t a, t b) in a radial direction, wherein the depth (t b) of the sipe main portion is less than the depth (t a) of the sipe edge portion and the depth (t a) of the sipe edge portion is 200% to 400% of the depth (t b) of the sipe main portion, wherein, in the interior of the profile rib, the sipe edge portion, over its entire extent, opens out into a cavity (4, 4 I to 4 III) which departs from the circumferential channel and which is of wider form in comparison with the sipe, characterized in that the sipe main portion has a length (l b), determined along the midline (m E) of the sipe, of 65% to 90% of the length (l E), determined in a corresponding manner, of the sipe, wherein the depth (t b) of the sipe main portion is 10% to 30% of the profile depth (T 1), and wherein the cavity (4, 4 I to 4 III), as seen in a cross section of the sipe, is elongate in the radial direction and has in the radial direction a length (l HR) of 25% to 45% of the profile depth (T 1).
A lamp arranged to be coupled either in a series combination with another lamp or in a parallel combination with another lamp, the lamp comprising: - a light source; - a device comprising: - a driver for driving the light source, the driver being operable in different modes, including a first mode and a second mode, the first mode being a preset-mode, wherein the driver receives parameter-information at a first input; the second mode is a feedback-mode wherein the driver receives feedback-information from the light source at a second input, and - a controller characterized in that, - the controller is configured to detect a value of an input voltage that is supplied to the lamp; - the controller is configured to operate the driver in response to the detection of the value of the input voltage, that is supplied to the device, whereby the driver is operated in the first mode in case the detected value of the input voltage is smaller than a threshold value, indicative of the lamp being placed in the series combination, and the controller is configured to operate the driver in the second mode in case the value of the input voltage is larger than the threshold value, indicative of the lamp being used solely or in the parallel combination. - a light source; - a device comprising: - a driver for driving the light source, the driver being operable in different modes, including a first mode and a second mode, the first mode being a preset-mode, wherein the driver receives parameter-information at a first input; the second mode is a feedback-mode wherein the driver receives feedback-information from the light source at a second input, and - a controller - the controller is configured to detect a value of an input voltage that is supplied to the lamp; - the controller is configured to operate the driver in response to the detection of the value of the input voltage, that is supplied to the device, whereby the driver is operated in the first mode in case the detected value of the input voltage is smaller than a threshold value, indicative of the lamp being placed in the series combination, and the controller is configured to operate the driver in the second mode in case the value of the input voltage is larger than the threshold value, indicative of the lamp being used solely or in the parallel combination.
Method for manufacturing a plate including channels, the manufacturing method including: - a superimposing step during which two strips (102, 104) of titanium or titanium alloy are superimposed on one another, - a welding step during which the two strips (102, 104) are welded together along the weld lines, - a closing step during which the zones between the first strip and the second strip where the zones between the weld lines open out at one of the edges (50, 52) of the first strip and of the second strip are closed, - a pressurization step during which a compressed fluid is injected at another edge (52, 50) of the first strip and of the second strip, where the zones between the weld lines open out between the first strip and the second strip so as to expand the strips (102, 104), and - an opening stage during which the zones closed during the closing stage are opened, where the superimposing step consists successively of a first placeing step during which the first strip is placed on a mould, a second placing step during which the second strip is placed on the first strip, and a covering step during which a countermould is placed on the second strip, where the mould and the countermould include a plurality of holes (306a-b), and in that the welding step consists of inserting needles into the holes in the mould and counter needles into the holes in the countermould and powering the needles and the counter needles with a voltage generator to weld the two strips (102, 104) together along the weld lines, and where the mould and the countermould include, between the holes (306a-b), female shapes (308a-b) corresponding to impressions of the channels to be obtained. - a superimposing step during which two strips (102, 104) of titanium or titanium alloy are superimposed on one another, - a welding step during which the two strips (102, 104) are welded together along the weld lines, - a closing step during which the zones between the first strip and the second strip where the zones between the weld lines open out at one of the edges (50, 52) of the first strip and of the second strip are closed, - a pressurization step during which a compressed fluid is injected at another edge (52, 50) of the first strip and of the second strip, where the zones between the weld lines open out between the first strip and the second strip so as to expand the strips (102, 104), and - an opening stage during which the zones closed during the closing stage are opened,