mhurhangee/ep-ind-claims huggingface dataset:
A wind turbine, comprising: a tower defining an access opening; a control assembly positioned within said tower; and a rail assembly (200,500) comprising: a plurality of rails comprising a first rail portion fixedly coupled on and/or at least partially within a floor and a second rail portion coupled to said first rail portion at a joint provided at or near the access opening, said second rail portion extending outwardly through the access opening when coupled to said first rail portion; and a plurality of wheels coupled to said control assembly, said wheels configured to engage said rails and enable movement of said control assembly along said rails to facilitate movement of said control assembly between an interior and an exterior of said tower; characterized in that: said floor defines a channel sized to receive said first rail portion such that a top surface (304,305) of said rail is substantially coplanar with said floor. a tower defining an access opening; a control assembly positioned within said tower; and a rail assembly (200,500) comprising: a plurality of rails comprising a first rail portion fixedly coupled on and/or at least partially within a floor and a second rail portion coupled to said first rail portion at a joint provided at or near the access opening, said second rail portion extending outwardly through the access opening when coupled to said first rail portion; and a plurality of wheels coupled to said control assembly, said wheels configured to engage said rails and enable movement of said control assembly along said rails to facilitate movement of said control assembly between an interior and an exterior of said tower; characterized in that: a plurality of rails comprising a first rail portion fixedly coupled on and/or at least partially within a floor and a second rail portion coupled to said first rail portion at a joint provided at or near the access opening, said second rail portion extending outwardly through the access opening when coupled to said first rail portion; and a plurality of wheels coupled to said control assembly, said wheels configured to engage said rails and enable movement of said control assembly along said rails to facilitate movement of said control assembly between an interior and an exterior of said tower; characterized in that: said floor defines a channel sized to receive said first rail portion such that a top surface (304,305) of said rail is substantially coplanar with said floor.
Linear transporting system comprising: at least one carriage, having at least one permanent magnet and a plurality of rollers, an energizable stator device, having a plurality of coils, a guide rail, which is arranged on the stator device and is intended for guiding the carriage, wherein the guide rail comprises running surfaces, on which the rollers of the carriage can roll, it therefore being possible for the rollers to roll on the running surfaces during displacement of the carriage with guidance by means of the guide rail, an electrically conductive contact surface, which is connected electrically to the guide rail, and at least one electrical contact device, which is formed separately from the roller and is designed to form an electrical connection between the carriage and the guide rail when the carriage is being displaced with guidance by means of the guide rail, wherein the electrical contact device comprises at least one electrically conductive component, which is arranged on the carriage, is connected electrically to the carriage and is designed to establish electrical contact with the contact surface during the guided displacement, characterized in that a point of contact of the component with the contact surface during the guided displacement is located opposite the geometric centre of a polygonal region of which the corners are formed in each case by a centre point of the respective spindles of the rollers. at least one carriage, having at least one permanent magnet and a plurality of rollers, an energizable stator device, having a plurality of coils, a guide rail, which is arranged on the stator device and is intended for guiding the carriage, wherein the guide rail comprises running surfaces, on which the rollers of the carriage can roll, it therefore being possible for the rollers to roll on the running surfaces during displacement of the carriage with guidance by means of the guide rail, an electrically conductive contact surface, which is connected electrically to the guide rail, and at least one electrical contact device, which is formed separately from the roller and is designed to form an electrical connection between the carriage and the guide rail when the carriage is being displaced with guidance by means of the guide rail, wherein the electrical contact device comprises at least one electrically conductive component, which is arranged on the carriage, is connected electrically to the carriage and is designed to establish electrical contact with the contact surface during the guided displacement, characterized in that a point of contact of the component with the contact surface during the guided displacement is located opposite the geometric centre of a polygonal region of which the corners are formed in each case by a centre point of the respective spindles of the rollers.
Descaling device for descaling a flow line system for fluids, comprising a storage container which can be supplied with water via a water inlet and which has a water-soluble descaling agent contained therein, the solution of which agent can be discharged through a mixture outlet of the storage container, a developing saturated solution of the initially solid, powdered or pasty descaling agent being introduced into the storage container that is filled with water, characterised in that an inhibitor is additionally introduced into the solid, powdered or pasty descaling agent in order to stabilise the descaling agent, which inhibitor dissolves, together with the descaling agent, when water is added and provides the active solution, the inhibitor being introduced into the dry matter as a powder or granulate material in a substantially uniformly distributed manner and dissolving at approximately the same speed as the descaling agent and also being designed to dissolve without residue.
Method for conveying plate-shaped components, in particular glass panes (2, 3), wherein at least one first component is stopped in a region and optionally processed and in which at least one second component is moved past the first component, characterized in that plate-shaped components are raised remaining in a substantially vertical conveying plane from a first conveying path transversely to the conveying direction (arrow 17) into a further conveying path and are lowered transversely to the conveying direction (arrow 17) into the first conveying path, in that the components are moved in the conveying paths (21, 22) at speeds differing from one another, in that at least one component is processed in at least one region which lies in the first conveying path, and in that the second component is raised from a first conveying path into a second conveying path remaining in its plane and in the conveying plane transversely to the conveying direction (arrow 17) in which the second component has been conveyed up, in that the second component is moved past the first component, which is stopped in the region, in the second conveying path by conveying the second component beyond the region in a direction parallel to the conveying direction, and in that the second component is moved downwards again after the region and then conveyed away.
A method for transmitting a physical uplink shared channel, PUSCH, the method performed by a machine type communication, MTC, device and comprising: receiving, by the MTC device which is configured not to transmit a sounding reference signal, SRS, information on a SRS subframe, wherein the information is used for the MTC device, which is configured not to transmit the SRS, to determine the SRS subframe configured for other user equipments, UEs; determining that a first subframe for transmitting a PUSCH includes a symbol overlapping a SRS symbol of the SRS subframe, based on the received information; mapping the PUSCH to one or more symbols of the first subframe; and transmitting the PUSCH on the one or more symbols of the first subframe, wherein based on that the first subframe includes a last symbol overlapped with the SRS symbol of the SRS subframe, the last symbol overlapping the SRS symbol of the SRS subframe is not used by the MTC device, which is configured not to transmit the SRS. receiving, by the MTC device which is configured not to transmit a sounding reference signal, SRS, information on a SRS subframe, wherein the information is used for the MTC device, which is configured not to transmit the SRS, to determine the SRS subframe configured for other user equipments, UEs; determining that a first subframe for transmitting a PUSCH includes a symbol overlapping a SRS symbol of the SRS subframe, based on the received information; mapping the PUSCH to one or more symbols of the first subframe; and transmitting the PUSCH on the one or more symbols of the first subframe, wherein based on that the first subframe includes a last symbol overlapped with the SRS symbol of the SRS subframe, the last symbol overlapping the SRS symbol of the SRS subframe is not used by the MTC device, which is configured not to transmit the SRS.
A circuit for detecting the appearance of X-rays with a view to triggering a radiological image capture, comprising a set of photodiodes connected to a ground, a transimpedance amplification circuit of the current supplied by the set of photodiodes and a capacitor, the transimpedance amplification circuit comprising an amplifier and a voltage source configured to produce a reference voltage (V ref) from power supplies external to the detection circuit, the amplifier being connected, on a first input of the amplifier, to an output of the set of photodiodes, the capacitance being connected between a ground (G D) and a second input of the amplifier, the detecting circuit further comprising a comparator for comparing the output voltage of the amplifier with a threshold voltage, the detection circuit being able to produce an image capture trigger signal when the output voltage of the amplifier exceeds the threshold voltage, the detection circuit being characterised in that the transimpedance amplification circuit comprises: • means (T2, GEN) configured to charge the capacitor with the reference voltage (V ref) generated by the voltage source during a first portion of an initializing phase of the detecting circuit, and to isolate the second input of the amplifier from the voltage source during a second portion of the initializing phase of the detecting circuit, • a capacitor connected between the first input of the amplifier and an output of the amplifier to integrate the current generated by the assembly of photodiodes, during a detecting phase following the second portion of the initializing phase. • means (T2, GEN) configured to charge the capacitor with the reference voltage (V ref) generated by the voltage source during a first portion of an initializing phase of the detecting circuit, and to isolate the second input of the amplifier from the voltage source during a second portion of the initializing phase of the detecting circuit, • a capacitor connected between the first input of the amplifier and an output of the amplifier to integrate the current generated by the assembly of photodiodes, during a detecting phase following the second portion of the initializing phase.
A charged particle accelerator comprising: a charged particle generation source for emitting a charged particle ion beam; an accelerating electrode tube (LA1.. LA28) through which the charged particle ion beam emitted from the charged particle generation source passes and which is for accelerating the charged particle that passes; a drive circuit (S1...S28) for applying voltage for accelerating the charged particle ion beam to the accelerating electrode tube; and a control unit for controlling the drive circuit (S1...S28) so that application of the voltage to the accelerating electrode tube is started when the leading edge of the pulsed ion beam reaches the center of the accelerating electrode tube (LA1.. LA28), characterized by an ammeter (4, 6) configured to measure an accelerating current that is generated in the accelerating electrode tube (LA1.. LA28) when the charged particle ion beam passes through the accelerating electrode tube, wherein the control unit is configured to adjust a timing to start applying voltage to the accelerating electrode tube (LA1.. LA28) based on a result of measurement of the accelerating current by the ammeter (4,6). a charged particle generation source for emitting a charged particle ion beam; an accelerating electrode tube (LA1.. LA28) through which the charged particle ion beam emitted from the charged particle generation source passes and which is for accelerating the charged particle that passes; a drive circuit (S1...S28) for applying voltage for accelerating the charged particle ion beam to the accelerating electrode tube; and a control unit for controlling the drive circuit (S1...S28) so that application of the voltage to the accelerating electrode tube is started when the leading edge of the pulsed ion beam reaches the center of the accelerating electrode tube (LA1.. LA28),
A plastic container with a first base with an underside and an upper side and four side walls (13, 14) projecting perpendicularly from the first base, wherein a circumferential edge runs along the upper edge of the side walls (13, 14) and a circumferential rib runs along the lower end of the side walls (13, 14), wherein the plastic container comprises a second base, which is arranged at the underside of the first base and encloses the same, wherein the second base comprises a planar base surface (18, 20) which extends parallel to the first base beyond the extent of the first base to the extent of the outer ends of the circumferential rib at the side walls (13, 14), characterised in that the second base comprises a planar middle part and a frame which surrounds the middle part, wherein the middle part extends over the entire surface area of the underside of the first base and the frame extends outwards from the circumference of the middle part in the plane of the middle part and at its outer edge comprises a circumferential wall which extends perpendicularly to the plane of the middle part of the second base in the direction of the circumferential rib at the side walls (13, 14). a circumferential edge runs along the upper edge of the side walls (13, 14) and a circumferential rib runs along the lower end of the side walls (13, 14), wherein the plastic container comprises a second base, which is arranged at the underside of the first base and encloses the same, wherein the second base comprises a planar base surface (18, 20) which extends parallel to the first base beyond the extent of the first base to the extent of the outer ends of the circumferential rib at the side walls (13, 14), characterised in that the second base comprises a planar middle part and a frame which surrounds the middle part, wherein the middle part extends over the entire surface area of the underside of the first base and the frame extends outwards from the circumference of the middle part in the plane of the middle part and at its outer edge comprises a circumferential wall which extends perpendicularly to the plane of the middle part of the second base in the direction of the circumferential rib at the side walls (13, 14).
A method of producing an orthodontic setup comprising (a) preparing at least one physical alveolar crest model from a non-porous plastic material, the physical alveolar crest model being configured as a positive model of an upper and/or lower jaw with teethridge, said alveolar crest model comprising cavities for receiving tooth models, and at least one continuous recess being inserted into the alveolar crest model; (b) preparing tooth models and which comprise, in addition to a tooth crown, a tooth neck and a tooth root, wherein the tooth root may be of simplified design; (c) optionally: positioning the tooth models into said alveolar crest model. (a) preparing at least one physical alveolar crest model from a non-porous plastic material, the physical alveolar crest model being configured as a positive model of an upper and/or lower jaw with teethridge, said alveolar crest model comprising cavities for receiving tooth models, and at least one continuous recess being inserted into the alveolar crest model; (b) preparing tooth models and which comprise, in addition to a tooth crown, a tooth neck and a tooth root, wherein the tooth root may be of simplified design; (c) optionally: positioning the tooth models into said alveolar crest model.
Magnetic induction furnace to heat solid or tubular metal billets made of non-ferrous material to be subjected to extrusion, the magnetic induction furnace comprising a heating part in which there is present at least one heating section comprising at least one coaxial annular electric motor having a fixed motor stator and a permanent magnet motor rotor mobile in said stator, the heating section being configured to contain each billet in completely stationary state when it is inserted into the furnace during the entire heating operation, wherein an annular rotor carrying a plurality of permanent magnets is provided inside each coaxial annular electric motor, said annular rotor being coaxial to said motor stator and motor rotor of the coaxial annular electric motor and defining a compartment with vertical axis with respect to a plane on which the furnace lies, the annular rotor being configured to contain at least one billet when heated by magnetic induction through the movement of the annular rotor contained in the motor rotor of the coaxial annular electric motor, said compartment being configured to contain completely the billet during the heating operation in the steady position.
A light emitting diode comprising: a light emitting structure including a first conductivity type semiconductor layer, an active layer on the first conductivity type semiconductor layer and a second conductivity type semiconductor layer on the active layer; a first electrode pad on the first conductivity type semiconductor layer; a second electrode pad on the second conductivity type semiconductor layer; and current blocking patterns (161, 162) overlapping edges of the first and second electrode pads (151, 152), wherein the current blocking patterns include a first current blocking pattern disposed under the first electrode pad and overlapping an edge of the first electrode pad, and a second current blocking pattern disposed under the second electrode pad and overlapping an edge of the second electrode pad, and wherein the first and second current blocking patterns (161, 162) are formed in a ring type; characterized in that the first current blocking pattern includes an overlapping area overlapping the first electrode pad, in that the overlapping area is in the range of 5% to 10% of the entire area of the first electrode pad, in that the second current blocking pattern includes an overlapping area overlapping the second electrode pad, in that the overlapping area is in the range of 5% to 10% of the entire area of the second electrode pad, and in that the widths of the sectional surfaces of the overlapping areas OA are in the range from 5 μ m to 15 μ m. a light emitting structure including a first conductivity type semiconductor layer, an active layer on the first conductivity type semiconductor layer and a second conductivity type semiconductor layer on the active layer; a first electrode pad on the first conductivity type semiconductor layer; a second electrode pad on the second conductivity type semiconductor layer; and current blocking patterns (161, 162) overlapping edges of the first and second electrode pads (151, 152), wherein the current blocking patterns include a first current blocking pattern disposed under the first electrode pad and overlapping an edge of the first electrode pad, and a second current blocking pattern disposed under the second electrode pad and overlapping an edge of the second electrode pad, and wherein the first and second current blocking patterns (161, 162) are formed in a ring type; characterized in that the first current blocking pattern includes an overlapping area overlapping the first electrode pad, in that the overlapping area is in the range of 5% to 10% of the entire area of the first electrode pad, in that the second current blocking pattern includes an overlapping area overlapping the second electrode pad, in that the overlapping area is in the range of 5% to 10% of the entire area of the second electrode pad, and in that the widths of the sectional surfaces of the overlapping areas OA are in the range from 5 μ m to 15 μ m.
A construction panel, intended to form an outer wall, a floor or a roof of a building, the construction panel comprising an outer face, an inner face, and four sections (6, 6') each joining one of the edges of the outer face to one of the edges of the inner face, the construction panel also comprising a first linking member, projecting substantially perpendicularly from the inner face, intended to be inserted in an accommodation of an outer face of a substantially longitudinal structural element of a supporting structure of the building, in particular a stud or a joist, and a second linking member, projecting substantially perpendicularly from the inner face, intended to be inserted in a housing of an outer face of a chaining element of the supporting structure and connected to said longitudinal structural element, the first and second linking members (10, 12) being arranged with respect to each other so as to force an automatic squaring of the structural element and of the chaining element due to the insertion of the first and second linking members (10, 12) in the housings (114, 116) of the corresponding outer faces, the first and second linking members (10, 12) being shaped so that this insertion takes place according to an insertion movement substantially perpendicular to the outer and inner faces (2, 4) of the construction panel, characterized in that the four sections (6, 6') form a substantially parallelepipedic and hollow box, containing a thermally insulating material and placed under vacuum via a filling orifice, and the construction panel also comprises a securing member, arranged on the side of the inner face so as to cooperate with securing means fastened to the structural or chaining element (108, 118), during or after insertion of the first and second linking members (10, 12) in the housings (114, 116) of the corresponding outer faces.