mhurhangee/ep-ind-claims huggingface dataset:
A method of providing a control command set for producing a processing tool by means of an additive layer-wise building device, which method comprises at least the following steps: - providing computer-based model data representing at least one sub-surface of an object, which sub-surface is to be processed using the processing tool and which is located within a channel through the object, - generating a computer-based model of the processing tool having an interaction surface interacting with the at least one sub-surface in the context of a processing process in such a way that the interaction surface is similar in the geometric sense to the sub-surface of the object to be processed, - generating a control command set for an additive layer-wise building device, by means of which control command set the production of the processing tool together with the object is implemented on the basis of the computer-based model of the processing tool comprising the interaction surface in such a way that during the production, the interaction surface of the processing tool is connected via support structures to the sub-surface of the object to be processed. - providing computer-based model data representing at least one sub-surface of an object, which sub-surface is to be processed using the processing tool and which is located within a channel through the object, - generating a computer-based model of the processing tool having an interaction surface interacting with the at least one sub-surface in the context of a processing process in such a way that the interaction surface is similar in the geometric sense to the sub-surface of the object to be processed, - generating a control command set for an additive layer-wise building device, by means of which control command set the production of the processing tool together with the object is implemented on the basis of the computer-based model of the processing tool comprising the interaction surface in such a way that during the production, the interaction surface of the processing tool is connected via support structures to the sub-surface of the object to be processed.
Heat-exchange module comprising a radiator and at least one functional element (3, 4) these being connected to one another via fixing means in such a way that the functional element extends in a plane parallel to the core bundle of the radiator, which defines a plane with axes Y and Z, an axis X being perpendicular to the plane of the core bundle of the radiator, the radiator and the functional element (3, 4) are intended to have a flow of air passed through them, the said fixing means respectively comprising an assembly device for assembling the radiator with the functional element (3, 4) via one of the ends of the core bundle of the radiator, and an indexing and immobilizing device which is situated at the other of the ends of the core bundle, characterized in that the radiator comprises an upper bridge passing around a bottle that stores refrigerant fluid and is assembled to a manifold of a condenser, the functional element being a secondary radiator, the assembly device assembling the functional element (3, 4) to the radiator being produced in part by the upper bridge allowing the radiators (2A, 2B) to be mechanically connected to one another in order to create a heat-exchanger stack with a radiator, a condenser and a radiator arranged in that order along the axis X, the upper bridge comprising an arm of substantially circular-arc shaped cross section the concave face of which faces the bottle, a free end of the bridge comprising a passage extending transversely through the arm, the passage being delimited by end stops (21, 22) of axes Z and X and configured in such a way as to accept an upper finger projecting out from the radiator.
A sensor device comprising at least one first electrode and at least one second electrode being coupled with an analysis device (LS1, LS2, TS1, MCU), wherein - the at least one first electrode is configured to be operated in a first operating mode in which the at least one first electrode operates as a receiving electrode, - the at least one second electrode is configured to be operated in said first operating mode in which the at least one second electrode operates as a transmitting electrode and in a second operating mode in which the at least one second electrode operates as a combined transmitting and receiving electrode, - in the first operating mode, the analysis device (TS1, MCU) is configured to analyse the capacitive coupling between the at least one first electrode and the at least one second electrode and - in the second operating mode, the analysis device (LS2, MCU) is configured to analyse a capacitive load of the at least one second electrode against a reference ground. - the at least one first electrode is configured to be operated in a first operating mode in which the at least one first electrode operates as a receiving electrode, - the at least one second electrode is configured to be operated in said first operating mode in which the at least one second electrode operates as a transmitting electrode and in a second operating mode in which the at least one second electrode operates as a combined transmitting and receiving electrode, - in the first operating mode, the analysis device (TS1, MCU) is configured to analyse the capacitive coupling between the at least one first electrode and the at least one second electrode and - in the second operating mode, the analysis device (LS2, MCU) is configured to analyse a capacitive load of the at least one second electrode against a reference ground.
A method comprising: determining location data of a user equipment in a cellular communications network, by the user equipment, wherein the location data comprises frequency fingerprints; deriving by the user equipment based on the determined location data, from a map received from the network, the map associating location data with measurement event data for each area of a cell of the cellular communications network, measurement event data for triggering a measurement event, the measurement event data relating to measurement configuration parameters used for a handover; and reporting the measurement event when the measurement event is detected based on the derived measurement event data. determining location data of a user equipment in a cellular communications network, by the user equipment, wherein the location data comprises frequency fingerprints; deriving by the user equipment based on the determined location data, from a map received from the network, the map associating location data with measurement event data for each area of a cell of the cellular communications network, measurement event data for triggering a measurement event, the measurement event data relating to measurement configuration parameters used for a handover; and reporting the measurement event when the measurement event is detected based on the derived measurement event data.
A method of operating a communication device that is roaming in a visited communication network that is not the home network of the communication device, the method comprising: receiving an indication of whether a first key that is used for encrypting communications on a first radio link to the visited communication network is to be reused for encrypting communications on a second radio link to the visited communication network; and sending a message to a network node in the home network of the communication device, the message containing information on the received indication. receiving an indication of whether a first key that is used for encrypting communications on a first radio link to the visited communication network is to be reused for encrypting communications on a second radio link to the visited communication network; and sending a message to a network node in the home network of the communication device, the message containing information on the received indication.
A pair of obstetric forceps (10, 110), comprising: a pair of blades (14a, 14b, 114a, 114b) at a first end for holding the head of a baby; a handle (18, 118) at a second end having at least one part by which a user can apply a pulling force on the head of the baby in use; a mechanically operated force indicator (52, 152) connected to the at least one part of the handle and operable to provide a visual indication of the amount of pulling force being applied to the head of the baby when a user applies a pulling force on the head of the baby in use; and a mechanically operated disabling device operable to at least partially disable the obstetric forceps when a maximum pulling force has been exceeded, characterized in that the force indicator is responsive to an increase only in pullling force. a pair of blades (14a, 14b, 114a, 114b) at a first end for holding the head of a baby; a handle (18, 118) at a second end having at least one part by which a user can apply a pulling force on the head of the baby in use; a mechanically operated force indicator (52, 152) connected to the at least one part of the handle and operable to provide a visual indication of the amount of pulling force being applied to the head of the baby when a user applies a pulling force on the head of the baby in use; and a mechanically operated disabling device operable to at least partially disable the obstetric forceps when a maximum pulling force has been exceeded, characterized in that the force indicator is responsive to an increase only in pullling force.
A system for spatially moving an object by means of a manipulator, said object being motion-coupled to the manipulator at least temporarily, having a motion specification means, which can be freely moved in space manually by an operating person at least temporarily, and which motion specification means is provided for at least temporary physical coupling to the object to be moved, in which coupling state the motion specification means is provided for the output of motion commands to a control device (6, 6') of the manipulator by the operating person, having, in the motion specification means, inertial sensors for sensing at least orientation changes of the motion specification means, having an orientation-determining unit (8, 8') for continuously determining the changing orientations of the motion specification means in space, wherein the control execution of at least one of the motion commands is, at least partly, dependent on the orientation of the motion specification means, and having a detection means (9, 9'), which sets the system into a first operating mode, if the motion specification means is freely moved in space manually, and said detection means (9, 9') setting the system into a second operating mode, if the orientation of the motion specification means is defined in consequence of mechanical contacting or coupling with the object, characterized in that in the first operating mode, the orientation-determining unit (8, 8') calculates the changing orientations of the motion specification means based on signals from the inertial sensors in the motion specification means, and in the second operating mode, the orientation-determining unit (8, 8') calculates the changing orientations of the motion specification means at least at defined shortly apart points in time exclusively based on information from the control device about the known positional states or positional changes of the manipulator controlled by the control device or the correspondingly moved object.
Heat exchange element for a plate heat exchanger, intended to exchange heat with a first gas flow by circulation of a heat-transfer fluid, comprising a channel for circulating the heat-transfer fluid, and means for introducing a second gas flow into the said heat exchange element, and characterized in that the heat exchange element comprises: - means for distributing and diffusing the second gas flow out of the said element, the second gas flow mixing with the first gas flow, and - a channel for transporting the second gas flow that connects the said introduction means to the said distribution and diffusion means, - the said heat exchange element being arranged to receive the said first and second gas flows and mix them over a plurality of elementary mixing zones which are discrete and spatially distributed. - means for distributing and diffusing the second gas flow out of the said element, the second gas flow mixing with the first gas flow, and - a channel for transporting the second gas flow that connects the said introduction means to the said distribution and diffusion means, - the said heat exchange element being arranged to receive the said first and second gas flows and mix them over a plurality of elementary mixing zones which are discrete and spatially distributed.
A liquid handling system (1, 100) comprising a cartridge (3, 103), and a transfer device (5, 105) couplable to a liquid reservoir, wherein the cartridge (3, 103) comprises plural separate compartments (11, 111) each having a compartment cavity (13, 113) configured to contain a respective amount of liquid and having an inlet (15, 115) and an outlet (17, 117), each inlet (15, 115) being closed by a penetrable seal (19, 119) and each outlet (17, 117) being closed by a filter (22A, 122A, 122B) allowing passage of a gas but blocking liquid passage, wherein the transfer device (5, 105) and the cartridge (3, 103) have matching keying portions (3A, 5A; 157, 159) defining a relative position and orientation of the cartridge and the transfer device when the keying portions are mated, and wherein one or more penetrating elements (27, 127) of the transfer device (5, 105) are arranged for penetrating, or causing to be penetrated, the seal of each compartment (11, 111) when the keying portions are mated, for fluidly connecting, when coupled, the reservoir and each compartment cavity (13, 113) of the cartridge through the one or more penetrating elements (27, 127). wherein the cartridge (3, 103) comprises plural separate compartments (11, 111) each having a compartment cavity (13, 113) configured to contain a respective amount of liquid and having an inlet (15, 115) and an outlet (17, 117), each inlet (15, 115) being closed by a penetrable seal (19, 119) and each outlet (17, 117) being closed by a filter (22A, 122A, 122B) allowing passage of a gas but blocking liquid passage, wherein the transfer device (5, 105) and the cartridge (3, 103) have matching keying portions (3A, 5A; 157, 159) defining a relative position and orientation of the cartridge and the transfer device when the keying portions are mated, and wherein one or more penetrating elements (27, 127) of the transfer device (5, 105) are arranged for penetrating, or causing to be penetrated, the seal of each compartment (11, 111) when the keying portions are mated, for fluidly connecting, when coupled, the reservoir and each compartment cavity (13, 113) of the cartridge through the one or more penetrating elements (27, 127).
A node (111, 181, 210, 1001) for tracking fulfillment of an operational constraint imposed on an operational function of a field device, the node comprising: - a retrieval module configured to retrieve a state signal (312, 313, 321, 322) indicative of an operational state of the operational function of the field device, the operational state being associated with the operational constraint, and - a logging module configured to write, to a distributed database, the operational state referenced to the operational function; characterized in that: - the operational constraint is activated or deactivated depending on one or more trigger criteria; and - the retrieval module is configured to retrieve a constraint signal indicative of the operational constraint from the distributed database, wherein the distributed database is a database that is distributed over a multitude of infrastructure nodes, wherein transactions are selectively deposited in the distributed database depending on a consensus between the infrastructure nodes. - a retrieval module configured to retrieve a state signal (312, 313, 321, 322) indicative of an operational state of the operational function of the field device, the operational state being associated with the operational constraint, and - a logging module configured to write, to a distributed database, the operational state referenced to the operational function; - the operational constraint is activated or deactivated depending on one or more trigger criteria; and - the retrieval module is configured to retrieve a constraint signal indicative of the operational constraint from the distributed database, wherein the distributed database is a database that is distributed over a multitude of infrastructure nodes, wherein transactions are selectively deposited in the distributed database depending on a consensus between the infrastructure nodes.
Variable-stiffness actuator, comprising a movable output member, motor means (12, 14) arranged to control the movement of the output member, first variable-stiffness elastic means interposed between said motor means (12, 14) and the output member, in such a manner that the transmission of the motion between said motor means (12, 14) and the output member occurs via said first variable-stiffness elastic means, and a body which supports said motor means (12, 14) and the output member, characterized in that it further comprises second elastic means interposed between the body and said motor means (12, 14) so as to apply on said motor means (12, 14) an elastic reaction torque or force opposing the driving torque or force generated by said motor means (12, 14).
A detection substrate, comprising: a base substrate; a plurality of data lines extending along a first direction (x); a plurality of gate lines extending along a second direction (y); a plurality of thin film transistors arranged on the base substrate; a plurality of first electrodes, a plurality of photoelectric conversion structures and a plurality of second electrodes arranged in sequence in a laminated manner and electrically connected with each other; and a plurality of bias lines electrically connected with the plurality of second electrodes; wherein each first electrode is electrically connected with a corresponding thin film transistor, and an orthographic projection of the each first electrode on the base substrate at least partially overlaps with an orthographic projection of an active layer of the corresponding thin film transistor on the base substrate; and characterized in that, the each first electrode comprises a first protruding part arranged on a side, close to a corresponding data line, of the each first electrode, and an orthographic projection of the first protruding part on the base substrate is located between the orthographic projection of the active layer on the base substrate and an orthographic projection of the corresponding data line on the base substrate; wherein each data line comprises a first groove arranged on a side, close to the first protruding part, of the each data line; and a distance between the each first electrode and the corresponding data line along the second direction (y) is basically equal. a base substrate; a plurality of data lines extending along a first direction (x); a plurality of gate lines extending along a second direction (y); a plurality of thin film transistors arranged on the base substrate; a plurality of first electrodes, a plurality of photoelectric conversion structures and a plurality of second electrodes arranged in sequence in a laminated manner and electrically connected with each other; and a plurality of bias lines electrically connected with the plurality of second electrodes; wherein each first electrode is electrically connected with a corresponding thin film transistor, and an orthographic projection of the each first electrode on the base substrate at least partially overlaps with an orthographic projection of an active layer of the corresponding thin film transistor on the base substrate; and characterized in that, the each first electrode comprises a first protruding part arranged on a side, close to a corresponding data line, of the each first electrode, and an orthographic projection of the first protruding part on the base substrate is located between the orthographic projection of the active layer on the base substrate and an orthographic projection of the corresponding data line on the base substrate; wherein each data line comprises a first groove arranged on a side, close to the first protruding part, of the each data line; and a distance between the each first electrode and the corresponding data line along the second direction (y) is basically equal.
Reactor for the separation of material included in composite raw material and comprising at least one reaction chamber and at least one rotor, said reaction chamber comprising at least one housing (6, 6a, 6b) which is sealed in relation to the surroundings and has at least one inlet opening (8a, 8b, 8c) and at least one outlet opening (9a, 9b) and said rotor comprising at least one shaft, and at least a first part of said rotor being situated in said housing (6, 6a, 6b) and said shaft extending from said first part through and out of said housing (6, 6a, 6b), said first part of said rotor comprising at least one hammer, characterized by at least one fan blade, which is positioned directly or indirectly on said shaft and situated near an outlet opening for gas of said at least one outlet opening (9a, 9b) in said reaction chamber, said outlet opening for gas being situated near at least one shaft seal, positioned directly or indirectly on said shaft, between said reaction chamber and the surroundings and comprising a fluid channel which is connected to a fluid source providing said gas, said fan blade being situated between said shaft seal and the central part of the reactor, said fan blade being situated in an inlet, which is especially designed for the purpose and located in said reaction chamber, into said outlet opening for gas, said shaft extending in only one direction from said first part through and out of said housing (6, 6a, 6b), and said fan blade being situated at an axial distance from said hammer on said first part of said rotor; wherein said fan blade is directed so that it, when said shaft rotates, counteracts the direction of motion of the occurring gas stream out of the reactor, at which particles of solid material accompanying the gas stream are thrown back inward toward the central part of the reactor, while the rest of the gas stream leaves the reactor through said outlet opening for gas.
A position sensor comprising: - a ferromagnetic core for conducting a magnetic flux, - at least one coil each surrounding a part of the ferromagnetic core, and - circuit boards (104, 105) mechanically supporting the ferromagnetic core, characterized in that the coil comprises electric conductors of the circuit boards and electric connectors electrically connecting the electric conductors of one of the circuit boards to the electric conductors of another one of the circuit boards, wherein the part of the ferromagnetic core and the electric connectors are between the circuit boards and the part of the ferromagnetic core is between the electric connectors. - a ferromagnetic core for conducting a magnetic flux, - at least one coil each surrounding a part of the ferromagnetic core, and - circuit boards (104, 105) mechanically supporting the ferromagnetic core,