mhurhangee/ep-ind-claims huggingface dataset:
A method of making a dental restoration, comprising the steps of: determining a virtual space available for accommodation of a dental restoration for a tooth to be restored by capturing the shape of a patient's teeth at least in an area adjacent the tooth to be restored; retrieving a predefined virtual master dental restoration surface from a database; fitting the virtual master dental restoration surface in the space by three-dimensionally transforming the virtual master dental restoration surface to provide a virtual outer dental restoration surface; creating a virtual inner dental restoration surface independent of a shape of the tooth to be restored, wherein the virtual inner dental restoration surface is automatically generated by a computer, based on the virtual outer dental restoration surface; providing a virtual model of a dental restoration based on a combination of the virtual outer dental restoration surface and the virtual inner dental restoration surface; and fabricating the dental restoration based on the dental restoration model. determining a virtual space available for accommodation of a dental restoration for a tooth to be restored by capturing the shape of a patient's teeth at least in an area adjacent the tooth to be restored; retrieving a predefined virtual master dental restoration surface from a database; fitting the virtual master dental restoration surface in the space by three-dimensionally transforming the virtual master dental restoration surface to provide a virtual outer dental restoration surface; creating a virtual inner dental restoration surface independent of a shape of the tooth to be restored, wherein the virtual inner dental restoration surface is automatically generated by a computer, based on the virtual outer dental restoration surface; providing a virtual model of a dental restoration based on a combination of the virtual outer dental restoration surface and the virtual inner dental restoration surface; and fabricating the dental restoration based on the dental restoration model.
A method for filtering a gas, the method comprising: sparging a gas through a liquid within a compartment of a container, the liquid comprising a culture that includes media with cells or microorganisms suspended therein; passing the sparged gas from the container through a gas filter (74, 74A, 74B, 74C) of a filter assembly (66, 66A, 66B, 66C, 66D, 66F, 404); and applying a partial vacuum to the gas filter so that the partial vacuum assists in drawing the sparged gas from the container through the gas filter. sparging a gas through a liquid within a compartment of a container, the liquid comprising a culture that includes media with cells or microorganisms suspended therein; passing the sparged gas from the container through a gas filter (74, 74A, 74B, 74C) of a filter assembly (66, 66A, 66B, 66C, 66D, 66F, 404); and applying a partial vacuum to the gas filter so that the partial vacuum assists in drawing the sparged gas from the container through the gas filter.
A system for solar radiation correction in radiosonde temperature measurements, the system comprising: - a radiosonde having a temperature sensor configured to determine a temperature of the atmosphere at different altitudes, - at least one light sensing assembly comprising ∘ a light sensor, and ∘ a light collector configured to collect light from different solar radiation angles at the different altitudes, and - the system further comprising control electronics or a computing device configured to calculate for each altitude a solar radiation correction based on the signal received by the light sensor in order to obtain a corrected temperature reading for each altitude, - wherein the collector is configured to collect light from different solar radiation angles proportional to solar radiation that is at the same time received by the temperature sensor, - wherein the at least one light sensing assembly has an identic sensitivity pattern for incoming solar radiation as the temperature sensor has for incoming visible solar radiation, characterized in that - the at least one light sensing assembly further comprises a light guide configured to guide light from the light collector to the light sensor, and - the light sensor is arranged inside of a housing of the radiosonde and the light collector is arranged outside of the housing of the radiosonde. - a radiosonde having a temperature sensor configured to determine a temperature of the atmosphere at different altitudes, - at least one light sensing assembly comprising ∘ a light sensor, and ∘ a light collector configured to collect light from different solar radiation angles at the different altitudes, and ∘ a light sensor, and ∘ a light collector configured to collect light from different solar radiation angles at the different altitudes, and - the system further comprising control electronics or a computing device configured to calculate for each altitude a solar radiation correction based on the signal received by the light sensor in order to obtain a corrected temperature reading for each altitude, - wherein the collector is configured to collect light from different solar radiation angles proportional to solar radiation that is at the same time received by the temperature sensor, - wherein the at least one light sensing assembly has an identic sensitivity pattern for incoming solar radiation as the temperature sensor has for incoming visible solar radiation, - the at least one light sensing assembly further comprises a light guide configured to guide light from the light collector to the light sensor, and - the light sensor is arranged inside of a housing of the radiosonde and the light collector is arranged outside of the housing of the radiosonde.
Attachment element for attaching a functional housing comprising: - a first plate equipped with first attachment means capable of being actuated in the one same predetermined attachment direction, - a second plate equipped with second attachment means, the second plate being situated at a predetermined distance from the first plate and extending at least partially opposite the first plate in said predetermined direction of attachment, - a connecting element rigidly connecting the first plate to the second plate, wherein the first attachment means are positioned on parts (11a, 11b) of the first plate that do not face the second plate in said predetermined direction of attachment. - a first plate equipped with first attachment means capable of being actuated in the one same predetermined attachment direction, - a second plate equipped with second attachment means, the second plate being situated at a predetermined distance from the first plate and extending at least partially opposite the first plate in said predetermined direction of attachment, - a connecting element rigidly connecting the first plate to the second plate,
Hydrostatic drive system having a drive motor, having a working hydraulics pump, driven by the drive motor, of a working hydraulics arrangement, and/or having a traction pump, driven by the drive motor, of a hydrostatic traction drive, and having a feed pump which is driven by the drive motor, which feed pump provides a supply to a feed pressure circuit, in the form of a constant-pressure network with an imposed pressure, of the drive system, wherein the feed pump is operated in an open circuit and draws pressure medium out of a container and delivers said pressure medium into a delivery line, characterized in that the feed pump is in the form of a constant-stroke piston pump with suction throttling.
A radio frequency frontend interface for a 61 GHz radio powered communication tag device comprising an integrated circuit, IC, embedded in a silicon die with a top metallization layer and a dielectric resonant body disposed on the silicon die, wherein an antenna (18, 27) with two antenna feed points (5, 14) and with a predetermined antenna impedance chosen such that a high voltage for a rectifier input is generated, is embedded into the top metallization layer of the silicon die and a RF rectifier (19, 20) and multiplier circuit as part of the IC and connected to the antenna feed is integrated in the silicon die and symmetrically placed between the antenna feed points (5, 14) configured to stabilize the antenna resonant frequency with its inherent capacity against varying surrounding materials and to generate a positive and negative DC output supply voltage against a bulk potential of the silicon die for directly operating a digital circuit in fully depleted silicon on insulator, FDSOI, technology embedded in the silicon die and wherein the resonant body is configured to work as a wavelength translator in between the antenna and free space.
A method of generating a personal authenticated transaction ticket with a registered-user redemption functionality, the method being implemented using a remote transaction information device and a central authentication system, the method comprising: receiving data at the remote transaction information device from a user, the data including: i. a symbol key comprising at least one symbol selected by the user from a plurality of distinguishable symbols, which symbols are presented to the user on a chart at the remote transaction information device; and ii. personal information identifying the user, the personal information including at least the user name; digitising and encrypting the symbol key and the personal information; transmitting the encrypted data to a central server; receiving a unique transaction number associated with the symbol key and personal information; and providing the unique transaction number to the user as part of the transaction ticket, the unique transaction number confirming the registration of the user and the authentication of the transaction ticket with the central server. receiving data at the remote transaction information device from a user, the data including: i. a symbol key comprising at least one symbol selected by the user from a plurality of distinguishable symbols, which symbols are presented to the user on a chart at the remote transaction information device; and ii. personal information identifying the user, the personal information including at least the user name; i. a symbol key comprising at least one symbol selected by the user from a plurality of distinguishable symbols, which symbols are presented to the user on a chart at the remote transaction information device; and ii. personal information identifying the user, the personal information including at least the user name; digitising and encrypting the symbol key and the personal information; transmitting the encrypted data to a central server; receiving a unique transaction number associated with the symbol key and personal information; and providing the unique transaction number to the user as part of the transaction ticket, the unique transaction number confirming the registration of the user and the authentication of the transaction ticket with the central server.
A connector or device adapter, which can be placed on a mounting unit perpendicularly with respect to a longitudinal direction of bus bars in the mounting unit and can be mechanically connected thereto, wherein one contact element per bus bar in the three-phase connector or device adapter is in an electrically conducting connection with the facing bus bar, and in the connector or device adapter the contact elements are electrically conducted to connection receptacles (22, 23; 22', 23'; 22", 23"; 29.1) near a narrow side of the connector or device adapter for the connection of a line, a plug or the like, the contact elements formed as contact rails (11, 12, 14; 11', 13', 14') are connected in an electrically conducting manner with the associated connection receptacles (22, 23; 22', 23'; 22", 23"; 29.1), and the connector or device adapter receives the contact element (11, 13, 14; 11', 13', 14'; 10.1") with contact points (12, 12") positioned with respect to the bus bars, the contact rails (11, 13, 14; 11', 13', 14') forming connecting units (10.1, 10.2, 10.3; 10.1', 10.2', 10.3'; 10.1") with the associated connection receptacles (22, 23; 22', 23'; 22", 23"; 29.1), wherein the connection receptacles (22, 23; 22', 23'; 22", 23"; 29.1) are fixed in place in insulating connection blocks (20, 20', 20", 29), wherein the connector or device adapter having receptacles formed as connection receptacles near a narrow side of the connector or device adapter, the connecting units (10.1, 10.2, 10.3; 10.1', 10.2', 10.3'; 10.1") are fixed in place in the receptacles formed as connection receptacles, wherein three of the connecting units (10.1, 10.2, 10.3; 10.1', 10.2', 10.3', 10") with contact elements (11, 13, 14; 11', 13', 14') of different lengths, matched to the spaced-apart bus bars, are employed, characterized in that the connection receptacles are arranged at the narrow side of the connector or device adapter and are embodied as individual receptacles for a respective connection block (20, 20'), wherein the individual receptacles are embodied as snap-in receptacles for the connection blocks (20, 20').
Dialysis machine comprising tubes (1, 5, 8) connected with a dialyzer, means for delivering pharmaceuticals Into the tubes and a pump for the transport of blood through the tubes and the dialyzer, characterized in that the dialysis machine comprises means for administration of at least one pharmaceutical by a pressure effect of the said pump; wherein said means for administration of at least one pharmaceutical by the pressure effect of said pump comprise a main line on the outlet side of said pump and a first section of a bypass line (21, 21 a, 21b, 21c) for connecting the main line with a container containing a pharmaceutical and a second section (23a, 23b, 23c) of the bypass line for connecting the container containing a pharmaceutical with the main line.
A method for correcting the barometric altitude of aircraft, characterised in that it comprises the following steps: • a preliminary step of dividing the stereographic plane that corresponds to a surveillance zone into a two-dimensional grid comprising a plurality of cells (302, 304); • a first step of starting a detection time window of a determined duration for detecting ratios of the ADS-B type; for each ratio of the ADS-B type received during said detection time window: • a step of acquiring and of storing pairs of values of barometric altitude and of geometric altitude (C; H) originating from ADS-B ratios associated with the corresponding cells; after the end of said detection time window: • a step of starting a computation time window of a determined duration; • a step of computing pressure and temperature values (P 0; T 0) at sea level for all of the cells, from all of the pairs (C; H) acquired for said cells during a determined period, and of computing a correction of the barometric altitude from the temperature and pressure values at sea level, for all of the targets detected by at least one sensor, on the vertical line of said cells. • a preliminary step of dividing the stereographic plane that corresponds to a surveillance zone into a two-dimensional grid comprising a plurality of cells (302, 304); • a first step of starting a detection time window of a determined duration for detecting ratios of the ADS-B type; • a step of acquiring and of storing pairs of values of barometric altitude and of geometric altitude (C; H) originating from ADS-B ratios associated with the corresponding cells; • a step of starting a computation time window of a determined duration; • a step of computing pressure and temperature values (P 0; T 0) at sea level for all of the cells, from all of the pairs (C; H) acquired for said cells during a determined period, and of computing a correction of the barometric altitude from the temperature and pressure values at sea level, for all of the targets detected by at least one sensor, on the vertical line of said cells.
Method for identifying anomalies during operation of a conveyor system for transporting piece goods, for example pieces of baggage, comprising a revolving drive chain, a drive unit and a conveying section, wherein the drive chain serves for transmitting force and movement from a drive unit to a conveying section and the drive chain comprises chain links and pins connecting them, wherein at least one of the pins is a force measuring pin configured for contactless transmission of the forces acting on it to a background system; characterised by the following method steps: a) when the drive chain is moved, the force measuring pin registers the forces acting on it; b) the registered forces are transmitted wirelessly from the force measuring pin to the background system together with a time stamp and/or a location stamp and an identity of the force measuring pin; c) in the background system, the data transmitted in method step b) is subjected to an analysis and identified as an anomaly in the event of deviations and signalled with a message. a) when the drive chain is moved, the force measuring pin registers the forces acting on it; b) the registered forces are transmitted wirelessly from the force measuring pin to the background system together with a time stamp and/or a location stamp and an identity of the force measuring pin; c) in the background system, the data transmitted in method step b) is subjected to an analysis and identified as an anomaly in the event of deviations and signalled with a message.
A magnetic bearing comprising: a stator core in which a plurality of teeth (24, 24-1, 24-2, 24-3, 24-4) are arranged in a circumferential direction so as to be located closer to an inner periphery than an annular back yoke is and to face a rotating shaft; and coils wound around the respective teeth (24, 24-1, 24-2, 24-3, 24-4), wherein a predetermined one of the teeth is configured so that a pitch between the predetermined tooth and one of two adjacent teeth that are located on clockwise and counterclockwise sides thereof in the circumferential direction is broader than a pitch between the predetermined tooth and the other tooth and that a magnetic flux flows in the same radial direction through the predetermined tooth and the tooth spaced from the predetermined tooth by the narrower pitch but in two different radial directions through the predetermined tooth and the tooth spaced from the predetermined tooth by the broader pitch, characterized in that each said tooth (24, 24-2) has, at its tip end, a notched portion on one of the clockwise and counterclockwise sides thereof that faces an adjacent one of teeth (24, 24-3) through which the magnetic flux flows in the same radial direction as the tooth (24, 24-2) and has, at its tip end, no notched portion on the other of the clockwise and counterclockwise sides thereof that faces another adjacent one of the teeth (24, 24-1), through which the magnetic flux flows in a different radial direction from the tooth (24, 24-2) such that a circumferential width of an outer peripheral portion of each said tooth (24, 24-1, 24-2, 24-3, 24-4) becomes broader than a circumferential width of its innermost peripheral portion thereof. a stator core in which a plurality of teeth (24, 24-1, 24-2, 24-3, 24-4) are arranged in a circumferential direction so as to be located closer to an inner periphery than an annular back yoke is and to face a rotating shaft; and coils wound around the respective teeth (24, 24-1, 24-2, 24-3, 24-4), wherein a predetermined one of the teeth is configured so that a pitch between the predetermined tooth and one of two adjacent teeth that are located on clockwise and counterclockwise sides thereof in the circumferential direction is broader than a pitch between the predetermined tooth and the other tooth and that a magnetic flux flows in the same radial direction through the predetermined tooth and the tooth spaced from the predetermined tooth by the narrower pitch but in two different radial directions through the predetermined tooth and the tooth spaced from the predetermined tooth by the broader pitch,
A modular conveyor belt comprising: a series of rows of one or more belt modules hingedly linked together at hinge joints between consecutive rows, wherein the rows are arranged in a repeating pattern of belt sections along a belt travel direction, each belt section including: a first region formed by one or more first rows of first belt modules having a flat top surface made of a first high-friction material having a first hardness durometer; a second region formed by one or more second rows of second belt modules having a textured top surface made of a second high-friction material having a second hardness durometer; a third region formed by one or more third rows of third belt modules disposed between the first and second regions (31, 32) and having a low-friction flat top surface recessed below the levels of the flat top surface of the first region and the textured top surface of the of the second region; a fourth region formed by consecutive fourth rows of the third belt modules disposed between the second region and the first region of a consecutive belt section; characterized in that the first hardness durometer is greater than the second hardness durometer. a first region formed by one or more first rows of first belt modules having a flat top surface made of a first high-friction material having a first hardness durometer; a second region formed by one or more second rows of second belt modules having a textured top surface made of a second high-friction material having a second hardness durometer; a third region formed by one or more third rows of third belt modules disposed between the first and second regions (31, 32) and having a low-friction flat top surface recessed below the levels of the flat top surface of the first region and the textured top surface of the of the second region; a fourth region formed by consecutive fourth rows of the third belt modules disposed between the second region and the first region of a consecutive belt section; characterized in that the first hardness durometer is greater than the second hardness durometer.
A computer-implemented method of using a dynamic virtual articulator (208, 708, 1108, 2208) for simulating occlusion of teeth (206, 707), when performing computer-aided designing of one or more dental restorations or orthodontic treatment planning for a patient, where the method comprises the steps of: - providing the virtual articulator (208, 708, 1108, 2208) comprising a virtual three-dimensional model of the upper jaw (204, 1304) and a virtual three-dimensional model of the lower jaw (205, 1305) resembling the upper jaw and lower jaw, respectively, of the patient's mouth; - providing movement of the virtual upper jaw (204, 1304) and the virtual lower jaw (205, 1305) relative to each other for simulating dynamic occlusion, whereby collisions between teeth in the virtual upper and virtual lower jaw occur, wherein the movement is provided in real-time where the entire movement of the patient's jaws are recorded as it happens; wherein the method further comprises: - providing that the teeth (206, 1306) in the virtual upper jaw (204, 1304) and virtual lower jaw (205, 1305) are blocked from penetrating each other's virtual surfaces in the collisions. - providing the virtual articulator (208, 708, 1108, 2208) comprising a virtual three-dimensional model of the upper jaw (204, 1304) and a virtual three-dimensional model of the lower jaw (205, 1305) resembling the upper jaw and lower jaw, respectively, of the patient's mouth; - providing movement of the virtual upper jaw (204, 1304) and the virtual lower jaw (205, 1305) relative to each other for simulating dynamic occlusion, whereby collisions between teeth in the virtual upper and virtual lower jaw occur, wherein the movement is provided in real-time where the entire movement of the patient's jaws are recorded as it happens; - providing that the teeth (206, 1306) in the virtual upper jaw (204, 1304) and virtual lower jaw (205, 1305) are blocked from penetrating each other's virtual surfaces in the collisions.