mhurhangee/ep-ind-claims huggingface dataset:
A method for the secure transmission of user data to a security element, wherein the method comprises: providing an encryption key (K ENC) and a check value key (K MAC) on the security element; encrypting the user data by means of the encryption key (K ENC) and using a cipher in order to generate at least a first cipher text (c 1) and a second cipher text (c 2); transmitting a data set to the security element, wherein the completely transmitted data set comprises the first cipher text (c 1), the second cipher text (c 2), a check value of the first cipher text (h(c 1)), a check value of the second cipher text (h(c 2)), a check value of a first key-based check value (h(MAC 1)), wherein the check value of the first cipher text (h(c 1)) is included in the first key-based check value (MAC 1), a check value of a second key-based check value (h(MAC 2)), wherein the first key-based check value (MAC 1) and the check value of the second cipher text (h(c 2)) are included in the second key-based check value (MAC 2), as well as a signature of the check value of the first cipher text and the check value of the first key-based check value (Sign 1 [h(c 1)∥h(MAC 1)]). providing an encryption key (K ENC) and a check value key (K MAC) on the security element; encrypting the user data by means of the encryption key (K ENC) and using a cipher in order to generate at least a first cipher text (c 1) and a second cipher text (c 2); transmitting a data set to the security element, wherein the completely transmitted data set comprises the first cipher text (c 1), the second cipher text (c 2), a check value of the first cipher text (h(c 1)), a check value of the second cipher text (h(c 2)), a check value of a first key-based check value (h(MAC 1)), wherein the check value of the first cipher text (h(c 1)) is included in the first key-based check value (MAC 1), a check value of a second key-based check value (h(MAC 2)), wherein the first key-based check value (MAC 1) and the check value of the second cipher text (h(c 2)) are included in the second key-based check value (MAC 2), as well as a signature of the check value of the first cipher text and the check value of the first key-based check value (Sign 1 [h(c 1)∥h(MAC 1)]).
A method for associating member ports with a link aggregation group between clusters comprising a plurality of apparatus, comprising: receiving, by each apparatus (A1, A2, A3, A4) in a cluster of apparatuses (A1, A2, A3, A4), a port joining link aggregation group message sent by a master control board on a master apparatus (A1, A2, A3, A4) in the cluster, the port joining link aggregation group message indicating that a member port (A31, A21, A22, A11, A12) has newly joined the link aggregation group; and associating, by an apparatus, the newly joined member port (A31, A21, A22, A11, A12) with the link aggregation group in response to that apparatus (A1, A2, A3, A4) determining that: (i) the newly joined member port (A31, A21, A22, A11, A12) is a port (A31, A21, A22, A11, A12) on that apparatus (A1, A2, A3, A4) itself and also (ii) the newly joined member port (A31, A21, A22, A11, A12) is a first member port in the link aggregation group of the cluster. receiving, by each apparatus (A1, A2, A3, A4) in a cluster of apparatuses (A1, A2, A3, A4), a port joining link aggregation group message sent by a master control board on a master apparatus (A1, A2, A3, A4) in the cluster, the port joining link aggregation group message indicating that a member port (A31, A21, A22, A11, A12) has newly joined the link aggregation group; and associating, by an apparatus, the newly joined member port (A31, A21, A22, A11, A12) with the link aggregation group in response to that apparatus (A1, A2, A3, A4) determining that: (i) the newly joined member port (A31, A21, A22, A11, A12) is a port (A31, A21, A22, A11, A12) on that apparatus (A1, A2, A3, A4) itself and also (ii) the newly joined member port (A31, A21, A22, A11, A12) is a first member port in the link aggregation group of the cluster. (i) the newly joined member port (A31, A21, A22, A11, A12) is a port (A31, A21, A22, A11, A12) on that apparatus (A1, A2, A3, A4) itself and also (ii) the newly joined member port (A31, A21, A22, A11, A12) is a first member port in the link aggregation group of the cluster.
A solid-state microstructure comprising - a substrate; - an intermediate layer arranged on said substrate, and - a thin-film layer arranged on said intermediate layer, said thin-film layer comprising a preferentially oriented perovskite-related material, - characterized in that the intermediate layer comprises a lanthanide oxynitrate. - a substrate; - an intermediate layer arranged on said substrate, and - a thin-film layer arranged on said intermediate layer, said thin-film layer comprising a preferentially oriented perovskite-related material, - characterized in that the intermediate layer comprises a lanthanide oxynitrate.
A compound represented by Formula I, or a pharmaceutically acceptable salt or solvate thereof, wherein R 1, R 2, R 3, R 4, R 5, R 6, R 7 and R 8 are each independently selected from hydrogen or deuterium, R 9, R 10 and R 11 are each independently selected from hydrogen, provided that at least one of R 1, R 2, R 3, R 4, R 5, R 6, R 7 and R 8 is selected from deuterium. R 1, R 2, R 3, R 4, R 5, R 6, R 7 and R 8 are each independently selected from hydrogen or deuterium, R 9, R 10 and R 11 are each independently selected from hydrogen, provided that at least one of R 1, R 2, R 3, R 4, R 5, R 6, R 7 and R 8 is selected from deuterium.
An agricultural system, comprising: a cylinder; a rod configured to move axially in and out of the cylinder; a cylinder lock system configured to control movement of the rod and/or cylinder, the cylinder lock system comprising: a cap-end fixture configured to couple to the cylinder and configured to receive the rod; a rod-end fixture configured to couple to an end of the rod; and a lock piston, the lock piston comprising a protrusion, wherein the lock piston is configured to rotate about the rod and selectively couple the protrusion to the cap-end fixture to lock and unlock the rod-end fixture to the cap-end fixture, characterized in that the cap-end fixture comprises a recess (84, 86) configured to receive the protrusion on the lock piston. a cylinder; a rod configured to move axially in and out of the cylinder; a cylinder lock system configured to control movement of the rod and/or cylinder, the cylinder lock system comprising: a cap-end fixture configured to couple to the cylinder and configured to receive the rod; a rod-end fixture configured to couple to an end of the rod; and a lock piston, the lock piston comprising a protrusion, wherein the lock a cap-end fixture configured to couple to the cylinder and configured to receive the rod; a rod-end fixture configured to couple to an end of the rod; and a lock piston, the lock piston comprising a protrusion, wherein the lock piston is configured to rotate about the rod and selectively couple the protrusion to the cap-end fixture to lock and unlock the rod-end fixture to the cap-end fixture, characterized in that the cap-end fixture comprises a recess (84, 86) configured to receive the protrusion on the lock piston.
Method for monitoring a free-wheeling pulley which is mounted on a drive shaft of a generator and is driven via a belt drive by a crankshaft or an intermediate drive gear, comprising the steps: (a) determining a rotational speed of the generator; (b) determining an intended rotational speed of the generator; and (c) detecting a malfunction of the free-wheeling pulley if the determined rotational speed of the generator falls below the intended rotational speed. (a) determining a rotational speed of the generator; (b) determining an intended rotational speed of the generator; and (c) detecting a malfunction of the free-wheeling pulley if the determined rotational speed of the generator falls below the intended rotational speed.
A method for producing filled containers from preforms in a circumferentially running forming and filling station, which is arranged on a working wheel and which comprises a mould belonging to the station and thus running circumferentially along with the station and a forming and filling element belonging to the station, thereby running circumferentially along with the station, wherein the filling of the preform with a liquid filling material is carried out by the forming and filling element, which contains at least one filling nozzle and which seals an upward-facing opening of the preform during the filling process so that no filling material can escape uncontrollably, and wherein the forming and filling element can be lifted from the opening and the mould can be opened for the removal of the filled container, wherein the preforms are each transferred to the circumferentially running forming and filling element of the forming and filling station (11.1-11.8) and are formed into the respective container due to the pressure effect of the fed filling material during a subsequent forming and filling process, wherein the mould with mould base and mould halves (19, 20) is designed as a plurality of parts, and the respective container is clamped in at least at the end of the forming and filling process between the mould base below and the moulding and filling element at the top, and wherein the container is separated from the respective forming and filling element after forming and filling, characterized in that the mould halves (19, 20) are removed from the respective container before the forming and filling element and the mould base are separated from the container.
A wind generator comprising: a nacelle; a hub rotatably carried by said nacelle and including at least a pair of wind turbine blades; an electricity producing generator including a stator (22, 26) and a rotor (24, 28) carried by said nacelle adjacent to and downstream of said hub, said rotor being connected to the hub and rotatable in response to wind acting on said blades to rotate the rotor relative to the stator to generate electricity; and a cooling system carried by the nacelle including at least one forward facing ambient air inlet port opening through a surface of said nacelle downstream of said hub and blades, and a duct for reverse flowing air from said inlet port in a generally upstream direction through said generator, in cooling relation to said rotor, toward said hub and to an air outlet port located forward of the generator stator. a nacelle; a hub rotatably carried by said nacelle and including at least a pair of wind turbine blades; an electricity producing generator including a stator (22, 26) and a rotor (24, 28) carried by said nacelle adjacent to and downstream of said hub, said rotor being connected to the hub and rotatable in response to wind acting on said blades to rotate the rotor relative to the stator to generate electricity; and a cooling system carried by the nacelle including at least one forward facing ambient air inlet port opening through a surface of said nacelle downstream of said hub and blades, and a duct for reverse flowing air from said inlet port in a generally upstream direction through said generator, in cooling relation to said rotor, toward said hub and to an air outlet port located forward of the generator stator.
Security document, in particular passport, in the form of a book which has a plurality of pages (11, 12, 13) which are connected to one another to form the book, wherein a first page of the security document has a carrier layer, an antenna structure arranged in a first region for RF communication and an electronic switch connected to the antenna structure having a memory device for storing data and a communication device connected to the antenna structure for the transmission of data stored in the memory device by means of the antenna structure via a radio interface on a reader, wherein a second page of the security document has a carrier layer and one or more electrically conductive layers (32, 36) which are formed in a second region for the formation of at least one LCR resonant circuit (3, 61), and wherein the antenna structure and the at least one LCR resonant circuit are arranged on the respective carrier layer such that if the book is closed, the first region of the first page and the second region of the second page at least partially overlap and the at least one LCR resonant circuit is coupled electromagnetically to the antenna structure, characterised in that, the at least one LCR resonant circuit has one or more coil-shaped conductive structures (51, 52) which are formed in the electrically conductive layer (52, 56) or which are formed in the electrically conductive layers (52, 56) and which each enclose at least 40% of a first surface region, that the at least one LCR resonant circuit has a first capacitor surface which is formed in a first of the electrically conductive layers and has a second capacitor surface which is formed in a second of the electrically conductive layers, that a dielectric layer (35, 31, 30) is arranged between the first electrically conductive layer and the second electrically conductive layer and that the first capacitor surface and the second capacitor surface overlap at least partially and that the first and the second capacitor surface (53, 54) are each connected to at least one of the coil-shaped conductive structures (50, 52).
A housing assembly for a safety actuation device comprising: a mounting plate; a first channel wall and a second channel wall extending substantially perpendicular from the mounting plate, the first channel wall including a first channel wall interior surface, and the second channel wall including a second channel wall interior surface, wherein the first channel wall is positioned substantially parallel to the second channel wall to form a channel therebetween; at least one guide device affixed to the first channel wall interior surface and at least one guide device affixed to the second channel wall interior surface, and characterized in that a at least one guide device (58A, 58C) comprises a guide pad wherein the guide pad includes a wear indicator disposed therein; and further comprising at least two apertures disposed within the mounting plate, the at least two apertures configured for mounting said assembly to a car frame with fasteners, such that the safety actuation device floats horizontally when there is position variation between the car frame and an elevator rail. a mounting plate; a first channel wall and a second channel wall extending substantially perpendicular from the mounting plate, the first channel wall including a first channel wall interior surface, and the second channel wall including a second channel wall interior surface, wherein the first channel wall is positioned substantially parallel to the second channel wall to form a channel therebetween; at least one guide device affixed to the first channel wall interior surface and at least one guide device affixed to the second channel wall interior surface, and characterized in that a at least one guide device (58A, 58C) comprises a guide pad wherein the guide pad includes a wear indicator disposed therein; and further comprising at least two apertures disposed within the mounting plate, the at least two apertures configured for mounting said assembly to a car frame with fasteners, such that the safety actuation device floats horizontally when there is position variation between the car frame and an elevator rail.
Device for the self-generation of an overvoltage and the simultaneous control of an actuator comprising at least one first inductance, the first inductance being formed by two coupled portions of coil (24, 25) between which there is an intermediate terminal, - the first inductance being linked to four switching elements Q1, Q2, Q3 and Q4, the four switching elements Q1, Q2, Q3 and Q4 forming, with the first inductance, a first H-configuration bridge, the switching elements Q1 and Q3 forming a first arm of the H, the switching elements Q2 and Q4 forming a second arm of the H, the first inductance forming the horizontal bar of H; - a load being linked in parallel to one of the arms of the H-configuration bridge; - the intermediate terminal of the first inductance being linked to a power source characterized in that it comprises: - a second inductance, the second inductance being formed by two coupled portions of coil (36, 37) between which there is an intermediate terminal, - two additional switching elements Q5 and Q6, these two additional switching elements Q5 and Q6 and the second inductance being linked to the first H-configuration bridge in such a way that the two additional switching elements Q5, Q6 and the second inductance form, with one of the arms of the first H-configuration bridge, a second H-configuration bridge; the power source being linked to the intermediate terminal of the second inductance. - the first inductance being linked to four switching elements Q1, Q2, Q3 and Q4, the four switching elements Q1, Q2, Q3 and Q4 forming, with the first inductance, a first H-configuration bridge, the switching elements Q1 and Q3 forming a first arm of the H, the switching elements Q2 and Q4 forming a second arm of the H, the first inductance forming the horizontal bar of H; - a load being linked in parallel to one of the arms of the H-configuration bridge; - the intermediate terminal of the first inductance being linked to a power source - a second inductance, the second inductance being formed by two coupled portions of coil (36, 37) between which there is an intermediate terminal, - two additional switching elements Q5 and Q6, these two additional switching elements Q5 and Q6 and the second inductance being linked to the first H-configuration bridge in such a way that the two additional switching elements Q5, Q6 and the second inductance form, with one of the arms of the first H-configuration bridge, a second H-configuration bridge; the power source being linked to the intermediate terminal of the second inductance.
Surgical device comprising: - a handle assembly comprising a casing forming a housing, a stationary handle element, and a movable handle element that can be moved by means of an actuating movement; - at least one disposable loading unit suitable for being mounted at least partially in a reversible manner inside said casing forming a housing, said loading unit comprising an actuation mechanism; said casing forming a housing supports: - a first actuation shaft mounted to make a longitudinal movement inside the housing in response to the movement of the movable handle element; - a transmission element mounted to actuate a longitudinal movement of a second actuation shaft mounted inside said casing forming a housing in response to the longitudinal movement of the first actuation shaft; said device being characterised in that said casing forming a housing supports a main actuation sled and a secondary actuation sled mounted to at least partially receive said at least one disposable loading unit, said actuation sleds (20a, 20b) being secured respectively to the actuation shafts (16b, 16a) in order to activate the actuation mechanism of the disposable loading unit in response to the longitudinal movements thereof. - a handle assembly comprising a casing forming a housing, a stationary handle element, and a movable handle element that can be moved by means of an actuating movement; - at least one disposable loading unit suitable for being mounted at least partially in a reversible manner inside said casing forming a housing, said loading unit comprising an actuation mechanism; - a first actuation shaft mounted to make a longitudinal movement inside the housing in response to the movement of the movable handle element; - a transmission element mounted to actuate a longitudinal movement of a second actuation shaft mounted inside said casing forming a housing in response to the longitudinal movement of the first actuation shaft;
A computer implemented method for generating placement location data for surgical anchor members comprising: acquiring anatomical geometry data comprising a surface geometry of an object of interest; acquiring surgical plan data comprising at least first and second intervention trajectories into the object of interest relative to the anatomical geometry data; acquiring geometric constraint data of a repositionable interventional platform for supporting a surgical instrument on the object of interest along the first and second intervention trajectories; and generating placement location data for surgical anchor members comprising a first set of surgical anchor member placement locations for positioning the repositionable interventional platform on the object of interest at a location of the first intervention trajectory, and comprising a second set of surgical anchor member placement locations for positioning the repositionable interventional platform on the object of interest at a location of the second intervention trajectory; wherein the first and second sets of anchor member locations of the placement location data are generated according to a criterion that at least one shared anchor member location that the repositionable interventional platform is configured to be anchored to during a first intervention along the first intervention trajectory and during a second intervention along the second intervention trajectory is present. acquiring anatomical geometry data comprising a surface geometry of an object of interest; acquiring surgical plan data comprising at least first and second intervention trajectories into the object of interest relative to the anatomical geometry data; acquiring geometric constraint data of a repositionable interventional platform for supporting a surgical instrument on the object of interest along the first and second intervention trajectories; and generating placement location data for surgical anchor members comprising a first set of surgical anchor member placement locations for positioning the repositionable interventional platform on the object of interest at a location of the first intervention trajectory, and comprising a second set of surgical anchor member placement locations for positioning the repositionable interventional platform on the object of interest at a location of the second intervention trajectory; wherein the first and second sets of anchor member locations of the placement location data are generated according to a criterion that at least one shared anchor member location that the repositionable interventional platform is configured to be anchored to during a first intervention along the first intervention trajectory and during a second intervention along the second intervention trajectory is present.