mhurhangee/ep-ind-claims huggingface dataset:
A drug delivery device for selecting and dispensing a number of user variable doses of a medicament, comprising a housing, a cartridge containing a medicament and a last dose protection mechanism for preventing the selection of a dose, which exceeds the amount of medicament left in a cartridge, which comprises a first member, which is rotatable in a first direction during dose selecting and in the opposite direction during dose dispensing, and a second member coupled to the first member and to the housing such that the second member is moved relative to the first member and to the housing upon rotation of the first member, characterized in that the last dose protection mechanism further comprises a third member which is moved relative to the first and second member (50, 60) during dose dispensing, wherein abutment of the second and third member (50, 100) prevents increasing the selected dose.
A pick-up device for an agricultural machine for harvesting stalk and leaf material comprising: - conveying means for transporting a crop stream, wherein the conveying means are equipped to move the crop stream through a monitoring area, - at least one metal detector for detecting metallic foreign bodies in the crop stream located in the monitoring area, wherein the metal detector comprises at least one magnet for generating a magnetic field, such that in dependence on electrical signals, upon detection of metal parts in the crop, drive elements of the pick-up device and/or further downstream machine components can be switched by means of a control signal, and wherein the conveying means for transporting the crop stream comprises a pick-up drum rotatable about an axis of rotation and having a plurality of conveying tines attached to or on the drum and projecting outwardly for receiving the crop and the monitoring area detected by the metal detector controls the crop flow: - in an area upstream of the pick-up drum, and/or - in an area (37, 37', 37") passed through by the conveyor tines of the pick-up drum for the presence of metal parts, characterized in that a metal detector - is mounted on or in the pick-up drum and/or - a conveyor roller is provided for forwarding the crop stream from the pick-up drum and a metal detector is disposed on or in the conveyor roller. - conveying means for transporting a crop stream, wherein the conveying means are equipped to move the crop stream through a monitoring area, - at least one metal detector for detecting metallic foreign bodies in the crop stream located in the monitoring area, wherein the metal detector comprises at least one magnet for generating a magnetic field, such that in dependence on electrical signals, upon detection of metal parts in the crop, drive elements of the pick-up device and/or further downstream machine components can be switched by means of a control signal, - in an area upstream of the pick-up drum, and/or - in an area (37, 37', 37") passed through by the conveyor tines of the pick-up drum - is mounted on or in the pick-up drum and/or - a conveyor roller is provided for forwarding the crop stream from the pick-up drum and a metal detector is disposed on or in the conveyor roller.
A vehicle display device, comprising: a display part provided with a display that generates display light of an image representing vehicle information and a reflector that reflects the display light, and capable of displaying the display light as a virtual image; a rotation-driver capable of driving the reflector to rotate about a predetermined shaft; an estimator that estimates that a vehicle is to be started by a vehicle occupant; a determiner that determines whether driving of the vehicle has been started actually; and a controller that controls a rotational angle of the rotation driver, characterized in that the controller controls the rotation-driver so that, when driving of the vehicle is to be started, the rotational angle is moved from an initial angle corresponding to an initial position of the reflector to a first intermediate angle between the initial angle and a final angle corresponding to a normal operation position of the reflector, and the controller controls the rotation-driver so that, after driving of the vehicle is started actually, the rotational angle is moved from the first intermediate angle to the final angle. a display part provided with a display that generates display light of an image representing vehicle information and a reflector that reflects the display light, and capable of displaying the display light as a virtual image; a rotation-driver capable of driving the reflector to rotate about a predetermined shaft; an estimator that estimates that a vehicle is to be started by a vehicle occupant; a determiner that determines whether driving of the vehicle has been started actually; and a controller that controls a rotational angle of the rotation driver, characterized in that the controller controls the rotation-driver so that, when driving of the vehicle is to be started, the rotational angle is moved from an initial angle corresponding to an initial position of the reflector to a first intermediate angle between the initial angle and a final angle corresponding to a normal operation position of the reflector, and the controller controls the rotation-driver so that, after driving of the vehicle is started actually, the rotational angle is moved from the first intermediate angle to the final angle.
Method for detecting a short circuit fault in the windings of a rotor of a rotating electric machine such as an alternator, using measurements of flux made by a probe positioned in an air gap of the machine, said method comprising the following steps: - sampling a probe signal (Vs) measured by the probe over at least one rotation of the rotor; - generating at least one difference signal (Gi) representative of the point by point difference between a superposition of the measurements of the probe signal (Vs) relative to two distinct poles of the rotor, in order to compare the probe signal measured pole to pole; and - processing said difference signal (Gi) in such a way as to be able to determine the possible presence of a short circuit fault; characterised in that said step of processing the difference signal (Gi) comprises the following steps: - calculating an algebraic mean value (m) and a standard deviation (e) of said difference signal (Gi); - determining a maximum amplitude of the probe signal (Vs); - calculating a decision-threshold value that takes into account said standard deviation (e) of the difference signal (Gi) and said maximum amplitude of the probe signal (Vs); - determining a diagnostic range centred on said algebraic mean value (m) and having a size of twice said decision-threshold value; - detecting at least one possible alert point (MA i) corresponding to a value of said difference signal (Gi) that is located outside of said diagnostic range; and - signalling a said short circuit fault as soon as at least one said alert point (MA i) is detected. - sampling a probe signal (Vs) measured by the probe over at least one rotation of the rotor; - generating at least one difference signal (Gi) representative of the point by point difference between a superposition of the measurements of the probe signal (Vs) relative to two distinct poles of the rotor, in order to compare the probe signal measured pole to pole; and - processing said difference signal (Gi) in such a way as to be able to determine the possible presence of a short circuit fault; - calculating an algebraic mean value (m) and a standard deviation (e) of said difference signal (Gi); - determining a maximum amplitude of the probe signal (Vs); - calculating a decision-threshold value that takes into account said standard deviation (e) of the difference signal (Gi) and said maximum amplitude of the probe signal (Vs); - determining a diagnostic range centred on said algebraic mean value (m) and having a size of twice said decision-threshold value; - detecting at least one possible alert point (MA i) corresponding to a value of said difference signal (Gi) that is located outside of said diagnostic range; and - signalling a said short circuit fault as soon as at least one said alert point (MA i) is detected.
An exhaust gas purification apparatus comprising: a selective catalytic reduction converter which is disposed in an exhaust pipe of an engine and that selectively reduces and purifies nitrogen oxide contained in exhaust gas upon being supplied with ammonia generated from a urea aqueous solution; and an injection nozzle that supplies by injection the urea aqueous solution on an exhaust gas upstream side of the selective catalytic reduction converter, wherein at least a part of the exhaust pipe located between the injection nozzle and the selective catalytic reduction converter has a double-pipe structure including an inner pipe and an outer pipe, each of which has a welded portion, wherein the inner pipe and the outer pipe are formed by butting ends of a rectangular plate material on each other and by being welded, wherein the welded portion of the inner pipe and of the outer pipe is extending in a direction in which an axis thereof extends; characterized in that the welded portion of the outer pipe is produced by welding performed from an inside of the outer pipe. a selective catalytic reduction converter which is disposed in an exhaust pipe of an engine and that selectively reduces and purifies nitrogen oxide contained in exhaust gas upon being supplied with ammonia generated from a urea aqueous solution; and an injection nozzle that supplies by injection the urea aqueous solution on an exhaust gas upstream side of the selective catalytic reduction converter, wherein at least a part of the exhaust pipe located between the injection nozzle and the selective catalytic reduction converter has a double-pipe structure including an inner pipe and an outer pipe, each of which has a welded portion, wherein the inner pipe and the outer pipe are formed by butting ends of a rectangular plate material on each other and by being welded, wherein the welded portion of the inner pipe and of the outer pipe is extending in a direction in which an axis thereof extends; characterized in that the welded portion of the outer pipe is produced by welding performed from an inside of the outer pipe.
A metallic effect pigment based on coated aluminum substrate platelets, where the aluminum substrate platelets have a thickness of 5 to 35 nm, are of monolithic construction, and are surrounded by a native passivation layer of Al 2 O 3 of less than 10 nm, where these aluminum substrate platelets are enveloped by at least one coating A of SiO 2 having a layer thickness of 10 to 100 nm, bearing a further, applied coating B of Fe 2 O 3 which envelops the substrate platelets having the SiO 2 coating A and which has a layer thickness of 5 to 45 nm, and characterized, for a ΔE45 of ≤ 3 at not more than 7% pigmentation, more particularly ΔE45° of ≤ 1 at < 7% pigmentation, by a saturation (S uv) in the range of 0.2-0.3, a value for the hue angle (h uv) in the range of 50-65, a value for the flop/Alman Index above 26, and a value for the Gdiff (graininess) at not more than 6.
A method for the manufacture of a gel, said method comprising the steps of a. providing a matrix composition comprising a polymeric photoinitiator synthesized using: (4-(3-(bis(2-hydroxyethyl)amino)propoxy)phenyl)(phenyl)methanone, PEG-2000, and 4,4'-methylenebis(cyclohexyl-isocyanate); b. curing the matrix composition obtained in step a. by exposing it to UV radiation, and c. exposing the matrix composition to a swelling medium, thus providing a gel; wherein step c. may take place before or after step b. a. providing a matrix composition comprising a polymeric photoinitiator synthesized using: (4-(3-(bis(2-hydroxyethyl)amino)propoxy)phenyl)(phenyl)methanone, PEG-2000, and 4,4'-methylenebis(cyclohexyl-isocyanate); b. curing the matrix composition obtained in step a. by exposing it to UV radiation, and c. exposing the matrix composition to a swelling medium, thus providing a gel; wherein step c. may take place before or after step b.
Gear train unit for coupling a drive motor with an automatic punching press or with a punching press, respectively, with a plurality of planetary gear train stages connected one after the other, which each comprise a ring gear, a sun gear (2a, 21, 21a) and a plurality of planet gears (3, 3a, 3b) supported on a planet carrier (5, 5a, 6), wherein the sun gear (2a, 21, 21a) of each following planetary gear train stage is formed by the planet carrier (5, 5a) of the preceding planetary gear train stage or is connected or connectable with said planet carrier (5, 5a) in a torsionally rigid manner in rotational direction of the latter, with a driving element which forms the sun gear of the first planetary gear train stage or which is connected or connectable with said sun gear in a torsionally rigid manner in rotational direction of the latter, and with an output element (6, 17) which forms the planet carrier of the last of the planetary gear train stages connected one after the other, or which is connected or connectable with said planet carrier in a torsionally rigid manner in rotational direction of the latter, wherein the gear train unit is surrounded by a drum-type housing (6, 17) which forms the output element (6, 17) of the gear train unit and which is supported by second bearings (9, 16), particularly roller bearings (9, 16), arranged in the area of the ends of its drum shape, in a rotatable manner about an axis extending in the center of its drum shape, wherein the driving element is supported by means of first bearings (9a, 24), particularly roller bearings (9a, 24), arranged in the region of its ends, in a rotatable manner about its longitudinal axis and wherein at least a part of the planet carriers (5a, 5b, 6) of the planetary gear train stages is supported on the driving element in the region between the first bearings (9a, 24) by means of bearings (19, 20), particularly by means of roller bearings (19, 20), characterized in that the driving element is supported with the first bearings (9a, 24) in each case at a component (22, 44, 44b) which is stationary during operation.
Altimetric measurement device adapted to be carried on board an aircraft or a satellite and to perform from said aircraft or satellite, an altitude measurement of a relief located at the surface of the Earth or a sounding of a semi-transparent volume located at said surface of the Earth, said device comprising: - a LIDAR system, in turn comprising:. a LIDAR transmitter configured to generate a primary LIDAR radiation, the device being configured to transmit the primary LIDAR radiation to the surface of the Earth,. a mirror-based radiation collector disposed so as to collect a LIDAR radiation backscattered by said surface of the Earth, and. a LIDAR receiver disposed so as to receive the backscattered and collected LIDAR radiation; and - a stereoscopic imaging system, in turn comprising:. an image forming assembly configured to form images in a focal plane, and. two image detectors (11, 12) disposed in the focal plane of the image forming assembly for capturing respective images of two offset portions of the surface of the Earth, through the image forming assembly along two different lines of sight (L 1, L 2), the device being characterized in that the radiation collector comprises an optical system common to the LIDAR system and to the image forming assembly of the stereoscopic imaging system for the two lines of sight (L 1, L 2), said device being configured to direct a first part of a total radiation collected by the radiation collector to the LIDAR receiver and a second part of said total collected radiation to the two image detectors (11, 12) of the stereoscopic imaging system. - a LIDAR system, in turn comprising:. a LIDAR transmitter configured to generate a primary LIDAR radiation, the device being configured to transmit the primary LIDAR radiation to the surface of the Earth,. a mirror-based radiation collector disposed so as to collect a LIDAR radiation backscattered by said surface of the Earth, and. a LIDAR receiver disposed so as to receive the backscattered and collected LIDAR radiation; and. a LIDAR transmitter configured to generate a primary LIDAR radiation, the device being configured to transmit the primary LIDAR radiation to the surface of the Earth,. a mirror-based radiation collector disposed so as to collect a LIDAR radiation backscattered by said surface of the Earth, and. a LIDAR receiver disposed so as to receive the backscattered and collected LIDAR radiation; and - a stereoscopic imaging system, in turn comprising:. an image forming assembly configured to form images in a focal plane, and. two image detectors (11, 12) disposed in the focal plane of the image forming assembly for capturing respective images of two offset portions of the surface of the Earth, through the image forming assembly along two different lines of sight (L 1, L 2),. an image forming assembly configured to form images in a focal plane, and. two image detectors (11, 12) disposed in the focal plane of the image forming assembly for capturing respective images of two offset portions of the surface of the Earth, through the image forming assembly along two different lines of sight (L 1, L 2),
An animated figure system, comprising: an animated figure comprising a flexible skin layer; an actuating system coupled to a connection location (108, 146) of the flexible skin layer; and an automation controller configured to: access a digital model of the animated figure, wherein the digital model comprises a virtual three-dimensional model of the animated figure and a vertex (150, 152) associated with the connection location (108, 146); determine a first positioning of the vertex (150, 152) within the digital model; control the actuating system (106, 250) to set a second positioning of the connection location (108, 146) based on the first positioning of the vertex; determine a movement of the vertex from the first positioning to a third positioning within the digital model; and control the actuating system (106, 250) to move the connection location (108, 146) from the second positioning to a fourth positioning to match the movement of the vertex from the first positioning to the third positioning; wherein the first and third positionings of the vertex are absolute positionings within the virtual space of the three-dimensional model. an animated figure comprising a flexible skin layer; an actuating system coupled to a connection location (108, 146) of the flexible skin layer; and an automation controller configured to: access a digital model of the animated figure, wherein the digital model comprises a virtual three-dimensional model of the animated figure and a vertex (150, 152) associated with the connection location (108, 146); determine a first positioning of the vertex (150, 152) within the digital model; control the actuating system (106, 250) to set a second positioning of the connection location (108, 146) based on the first positioning of the vertex; determine a movement of the vertex from the first positioning to a third positioning within the digital model; and control the actuating system (106, 250) to move the connection location (108, 146) from the second positioning to a fourth positioning to match the movement of the vertex from the first positioning to the third positioning; wherein the first and third positionings of the vertex are absolute positionings within the virtual space of the three-dimensional model. access a digital model of the animated figure, wherein the digital model comprises a virtual three-dimensional model of the animated figure and a vertex (150, 152) associated with the connection location (108, 146); determine a first positioning of the vertex (150, 152) within the digital model; control the actuating system (106, 250) to set a second positioning of the connection location (108, 146) based on the first positioning of the vertex; determine a movement of the vertex from the first positioning to a third positioning within the digital model; and control the actuating system (106, 250) to move the connection location (108, 146) from the second positioning to a fourth positioning to match the movement of the vertex from the first positioning to the third positioning; wherein the first and third positionings of the vertex are absolute positionings within the virtual space of the three-dimensional model.
Pallet unit comprising at least of a pallet, a pallet tray arranged on the pallet, a single-layer or multi-layer flat material, and a product stack, wherein the pallet tray is formed as a enclosing packing element, with a jacket covering enclosing the product stack over its entire height or substantially over its entire height, and the jacket covering is formed from at least one wall element (13, 14, 15, 16) produced independently of the base plate, which is supported on the base plate, characterised in that the jacket covering encloses a base plate edge (5.1), which projects over the side of the base plate facing away from the pallet, and is supported with a lower edge on support tabs, said tabs projecting over the outer surface of the base plate edge and produced as one piece with the base plate.