mhurhangee/ep-ind-claims huggingface dataset:
Foam material sealing strip for sealing of a window frame in relation to an embrasure, wherein the foam material sealing strip is at least partially impregnated for delayed recovery, wherein the foam material sealing strip has two opposing long sides, which in the installed state of the foam material sealing strip face the building interior or the building exterior, and also has an opposing upper or lower face (9, 10) respectively for bearing on the window side or the embrasure, wherein furthermore the foam material sealing strip associated with the long sides is formed differently by foam material strips (5, 6) which are joined together and are different, but open-pored in each case, and are held together by an adhesive layer covering one side in such a way that, in any case, in the installed state of the foam material sealing strip a different damping/braking effect is produced, wherein the different foam material strips (5, 6) are in each case impregnated for delayed recovery, and wherein the foam material strips (5, 6) in each case extend over the entire thickness (d) of the foam material sealing strip, wherein on their mutually facing long sides (7, 8) the foam material strips (5, 6) extend alongside one another without adhesion at least in some instances, in such a way that the foam material sealing strip is permeable to air in the transverse direction, wherein the air permeability of the foam material sealing strip is determined solely by the combination of the air permeabilities of the respectively impregnated foam material strips (5, 6), and that the different damping/braking effect is achieved by a different initial density and/or a different impregnation of the different foam material strips (5, 6), characterised in that on their mutually facing long sides (7, 8) the different foam material strips (5, 6) are adhered to one another leaving areas which are free of adhesion.
A terminal communicating with a base station apparatus in a first cell and in a second cell by using carrier aggregation, the terminal comprising: a receiving section configured to receive a Radio Resource Control, RRC, connection reconfiguration message including information of a Radio Link Monitoring, RLM, reference signal relating to the first cell or the second cell; and a control section configured to control stop of a radio link failure detection timer T310 and reset of a counter N310 indicating reception of an Out of Sync, OOS, for starting the detection timer and reset of a counter N311 indicating reception of In Sync, IS, for stopping the detection timer in the first cell or the second cell based on the RRC connection reconfiguration message, wherein when the RRC connection reconfiguration message includes information about whether or not to stop the detection timer T310, the control section stops the detection timer T310. a receiving section configured to receive a Radio Resource Control, RRC, connection reconfiguration message including information of a Radio Link Monitoring, RLM, reference signal relating to the first cell or the second cell; and a control section configured to control stop of a radio link failure detection timer T310 and reset of a counter N310 indicating reception of an Out of Sync, OOS, for starting the detection timer and reset of a counter N311 indicating reception of In Sync, IS, for stopping the detection timer in the first cell or the second cell based on the RRC connection reconfiguration message, wherein when the RRC connection reconfiguration message includes information about whether or not to stop the detection timer T310, the control section stops the detection timer T310.
A structure, comprising: a first substrate (120, 200) interposed between a second substrate and a third substrate, wherein: the first substrate (120, 200) has a first side and a second side, the second side opposing the first side; the second substrate has a third side, wherein the third side of the second substrate is covalently bonded through a plurality of nitrogen atoms (410, 420, 430, 440) to the first side of the first substrate (120, 200); and the third substrate has a fourth side, wherein the fourth side of the third substrate is connected to the second side of the first substrate (120, 200), wherein an interpenetrated network of polymer chains is disposed between the third substrate and the first substrate (120, 200). the first substrate (120, 200) has a first side and a second side, the second side opposing the first side; the second substrate has a third side, wherein the third side of the second substrate is covalently bonded through a plurality of nitrogen atoms (410, 420, 430, 440) to the first side of the first substrate (120, 200); and the third substrate has a fourth side, wherein the fourth side of the third substrate is connected to the second side of the first substrate (120, 200), wherein an interpenetrated network of polymer chains is disposed between the third substrate and the first substrate (120, 200).
A turbomolecular pump rotor comprising a first pump structure and a second pump structure, wherein each pump structure is suitable and provided to form a pump stage with a stator-side pump structure (220, 224); wherein a first rotor part comprises the first pump structure and the second pump structure and the turbomolecular pump rotor has a third pump structure (211, 215); wherein the first pump structure and the second pump structure are arranged in the form of rotor vane rings at the first rotor part, characterized in that the first pump structure and the second pump structure form a single-piece body with the first rotor part; and in that the first rotor part has a support section at which at least two support rings (208, 209) having a respective rotor vane ring (219, 223) are arranged and form the third pump structure (211, 215). wherein a first rotor part comprises the first pump structure and the second pump structure and the turbomolecular pump rotor has a third pump structure (211, 215); wherein the first pump structure and the second pump structure are arranged in the form of rotor vane rings at the first rotor part, characterized in that the first pump structure and the second pump structure form a single-piece body with the first rotor part; and in that the first rotor part has a support section at which at least two support rings (208, 209) having a respective rotor vane ring (219, 223) are arranged and form the third pump structure (211, 215).
Device for switching a direct current in a pole of a direct current network comprising - two connection terminals (2, 3) for connection in series to the pole, - an operating current branch, which extends between the connection terminals (2, 3) and in which at least one mechanical switch (7, 23) is arranged, - a disconnection branch, in which a power switching unit is arranged, which is designed for disconnecting high fault currents and has a power semiconductor switch which can be switched on and off, and - commutation means (8, 9, 18, 19, 20, 29, 30, 31) for commutating the current from the operating current path onto the disconnection branch, characterized in that the commutation means (8, 9, 18, 19, 20, 29, 30, 31) have at least one inductive component part (8, 18, 19, 29, 30, 31). - two connection terminals (2, 3) for connection in series to the pole, - an operating current branch, which extends between the connection terminals (2, 3) and in which at least one mechanical switch (7, 23) is arranged, - a disconnection branch, in which a power switching unit is arranged, which is designed for disconnecting high fault currents and has a power semiconductor switch which can be switched on and off, and - commutation means (8, 9, 18, 19, 20, 29, 30, 31) for commutating the current from the operating current path onto the disconnection branch,
A high-frequency heating device (400, 500, 600) comprising: a high-frequency power generation unit (120, 220, 320) configured to generate high-frequency power; a plurality of surface wave excitation bodies (403a, 403b, 503a, 503b, 603a, 603b) configured to propagate the high-frequency power as respective surface waves to heat a heating-target object; a high-frequency power supply unit (110a, 110b, 210, 310a, 310b) configured to supply the high-frequency power to the plurality of surface wave excitation bodies (403a, 403b, 503a, 503b, 603a, 603b); and a stand on which the heating-target object is mounted, wherein the plurality of surface wave excitation bodies (403a, 403b, 503a, 503b, 603a, 603b) are disposed at locations opposite to each other in such a manner that the heating-target object is put between the plurality of surface wave excitation bodies (403a, 403b, 503a, 503b, 603a, 603b), characterized in that the plurality of surface wave excitation bodies (403a, 403b, 503a, 503b, 603a, 603b) have different exciting frequencies, and a field intensity distribution caused by high-frequency power propagating along a surface of each of the plurality of surface wave excitation bodies (403a, 403b, 503a, 503b, 603a, 603b) is configured to be changed by changing a magnitude relationship between a frequency of the high-frequency power and the exciting frequency of each of the plurality of the surface wave excitation bodies (403a, 403b, 503a, 503b, 603a, 603b). a high-frequency power generation unit (120, 220, 320) configured to generate high-frequency power; a plurality of surface wave excitation bodies (403a, 403b, 503a, 503b, 603a, 603b) configured to propagate the high-frequency power as respective surface waves to heat a heating-target object; a high-frequency power supply unit (110a, 110b, 210, 310a, 310b) configured to supply the high-frequency power to the plurality of surface wave excitation bodies (403a, 403b, 503a, 503b, 603a, 603b); and a stand on which the heating-target object is mounted, wherein the plurality of surface wave excitation bodies (403a, 403b, 503a, 503b, 603a, 603b) are disposed at locations opposite to each other in such a manner that the heating-target object is put between the plurality of surface wave excitation bodies (403a, 403b, 503a, 503b, 603a, 603b), characterized in that the plurality of surface wave excitation bodies (403a, 403b, 503a, 503b, 603a, 603b) have different exciting frequencies, and a field intensity distribution caused by high-frequency power propagating along a surface of each of the plurality of surface wave excitation bodies (403a, 403b, 503a, 503b, 603a, 603b) is configured to be changed by changing a magnitude relationship between a frequency of the high-frequency power and the exciting frequency of each of the plurality of the surface wave excitation bodies (403a, 403b, 503a, 503b, 603a, 603b).
An unmanned aircraft having a propulsion that comprises an internal combustion engine, configured as a diesel and/or kerosene engine, having a charger device for engine charging, wherein the propulsion is a hybrid propulsion which, in addition to the internal combustion engine, comprises an electric motor (36, M) and an energy storage device for storing electric energy for driving the electric motor (36, M), wherein a controller is provided, with which the charger device and/or the hybrid propulsion can be controlled in dependency of various parameters in flight operation, characterized in that the controller is designed to control the charger device and/or the hybrid propulsion in dependency of at least one of the parameters of allowable heat output, allowable operating noise level, and/or temperature to reduce the thermal and/or acoustic signature of the airplane.
Device for isolating fixed or living cells on a filter (108, 308) or for extracting the genetic material of said cells, which comprises: - a compartment (102, 302) having an inner volume for receiving a liquid comprising said cells, a lower opening and an air inlet; - a means mobile relative to the compartment, this mobile means having tabs, - the filter fixed, at least temporarily, to said opening of the compartment or to said mobile means, and designed to retain said cells as the liquid passes through the filter; and - a needle hermitically fixed, at least temporarily, to said opening of the compartment, the filter being located between the needle and the inner volume of the compartment, said needle being designed to perforate a plug of a vacuum tube having low pressure relative to the ambient pressure for drawing the liquid through said filter, characterized in that it further comprises a means of linkage (504, 520) between the compartment and a protection cylinder surrounding the needle, said linkage means being designed to surround, at least partially, the vacuum tube during the drawing of the liquid through the filter, wherein the mobile means and the compartment are configured to be put in relative motion to apply a force on the filter and release the filter after drawing the liquid through the filter, and wherein the tabs of the mobile means are configured to, when an operator's finger puts the mobile means and the compartment in relative motion, to exert a pressure on a mount of the filter and release the filter mount from the opening of the compartment. - a compartment (102, 302) having an inner volume for receiving a liquid comprising said cells, a lower opening and an air inlet; - a means mobile relative to the compartment, this mobile means having tabs, - the filter fixed, at least temporarily, to said opening of the compartment or to said mobile means, and designed to retain said cells as the liquid passes through the filter; and - a needle hermitically fixed, at least temporarily, to said opening of the compartment, the filter being located between the needle and the inner volume of the compartment, said needle being designed to perforate a plug of a vacuum tube having low pressure relative to the ambient pressure for drawing the liquid through said filter, characterized in that it further comprises a means of linkage (504, 520) between the compartment and a protection cylinder surrounding the needle, said linkage means being designed to surround, at least partially, the vacuum tube during the drawing of the liquid through the filter, wherein the mobile means and the compartment are configured to be put in relative motion to apply a force on the filter and release the filter after drawing the liquid through the filter, and wherein the tabs of the mobile means are configured to, when an operator's finger puts the mobile means and the compartment in relative motion, to exert a pressure on a mount of the filter and release the filter mount from the opening of the compartment.
A device for bridging an expansion joint in the region of a carriageway, comprising a superstructure and a substructure, with the following features: The substructure forms a support for the superstructure; the superstructure comprises at least one elastic element; there is disposed in the superstructure at least one holding element (19, 20) which is at least partially embedded in the elastic element; the at least one holding element (19 20) is formed by an angle profile or by angle profiles, respectively, and is disposed so as to extend continuously across at least almost the entire length of the superstructure; the elastic element of the superstructure is cast in-situ, characterized in that the elastic element is at least partially made from a cold-hardening castable synthetic resin or a cold-hardening castable plastic in the form of a polyurea system. The substructure forms a support for the superstructure; the superstructure comprises at least one elastic element; there is disposed in the superstructure at least one holding element (19, 20) which is at least partially embedded in the elastic element; the at least one holding element (19 20) is formed by an angle profile or by angle profiles, respectively, and is disposed so as to extend continuously across at least almost the entire length of the superstructure; the elastic element of the superstructure is cast in-situ, characterized in that the elastic element is at least partially made from a cold-hardening castable synthetic resin or a cold-hardening castable plastic in the form of a polyurea system.
An air exhaust module for use in a system for transporting a fiber web through a dry end of a fibre web processing machine from a drying section to a reeling section of the machine, the module comprising a self-cleaning air exhaust slot, characterized in that the module comprises a rotatable section having an extending lip, which rotatable section is arranged to be rotated such that the lip traverses and clears the exhaust slot.
Motor vehicle comprising a bulkhead separating the engine compartment relative to the front of a cabin of the vehicle, a floor at the rear of the bulkhead, at the bottom of the cab, and a device for the thermal protection of the cab, with the thermal protection device comprising means for thermal protection arranged on the one hand below the floor of the vehicle and on the other hand, on the engine compartment side, under the bulkhead, characterised in that the means for thermal protection comprise a bulkhead heat shield having a main panel arranged along the bulkhead and a floor front heat shield arranged below the front of the floor of the vehicle, with the bulkhead heat shield having, downstream of the main panel and under the bottom of the bulkhead with the connection with the floor, a lower edge in two portions (12, 13) through which it corresponds via overlapping with the floor front heat shield and of which a first upstream portion among the two portions is upstream of the floor shield by being conformed as a deflector and of which a second downstream portion among the two portions extends the first portion by determining an overlap zone with the floor front heat shield by extending above the front of this heat shield.
A luminaire including: - a metal frame configured to be connected to ground and comprising a luminaire housing; - a light-emitting diode module comprising a circuit board and being mounted on the metal frame; - a surge protection circuit comprising a shunt impedance element (510, 520), the shunt impedance element (510, 520) comprising at least one of: a capacitor, a resistor and a semiconductor-based component; and - a driver configured to transform mains voltage for said light-emitting diode module and comprising a primary side and a secondary side which are insulated from one another, the primary side being connected to mains supply, the secondary side being connected by means of electrical connections (150, 155) to the light-emitting diode module associated with respective driver; wherein the surge protection circuit electrically connects said metal frame to the electrical connections (150, 155) between the driver and its associated light-emitting diode module; characterized in that the driver is mounted on the metal frame and in that the surge protection circuit further comprises at least one series impedance element (710, 720) positioned between said driver and said shunt impedance element (510, 520). - a metal frame configured to be connected to ground and comprising a luminaire housing; - a light-emitting diode module comprising a circuit board and being mounted on the metal frame; - a surge protection circuit comprising a shunt impedance element (510, 520), the shunt impedance element (510, 520) comprising at least one of: a capacitor, a resistor and a semiconductor-based component; and - a driver configured to transform mains voltage for said light-emitting diode module and comprising a primary side and a secondary side which are insulated from one another, the primary side being connected to mains supply, the secondary side being connected by means of electrical connections (150, 155) to the light-emitting diode module associated with respective driver;
A strap lifter comprising a harness with a generally horizontal buckle strap; characterized by a generally horizontal, moveable, flexible upper loop secured to said horizontal buckle strap at both ends (34, 34') of said upper loop, the ends (34, 34') of said upper loop being made of a flexible material; and a generally horizontal, fixed, rigid lower loop also secured at both ends to said horizontal buckle strap, said lower loop being generally parallel to, but beneath, said upper loop; wherein flexing of said ends (34, 34') of the upper loop allows to move the upper loop toward the rigid lower loop from a raised position to a lowered position.
Commercial vehicle tyre intended for mounting on an E.T.R.T.O. Standards Manual standardized 15° drop-centre rim (width codes 5.25 to 18.00) with two rim flanges and with two rim sections, each with a bead seat surface, wherein the commercial vehicle tyre has two bead regions with bead cores and in each case one bead toe and one bead contour on the outside of the tyre and one on the inside of the tyre, which bead contours adjoin one another at the bead toe, wherein each bead contour on the outside of the tyre has a first segment (S 1), which is in contact with the rim flange when the commercial vehicle tyre is mounted on the rim, and an outer contour region, which is at least partially in contact with the bead seat surface when the commercial vehicle tyre is mounted on the rim, wherein the outer contour region is made up of three adjoining segments (S 2, S 3, S 4), specifically a second segment (S 2) which adjoins the first segment (S 1), which comes into contact with the rim flange, at an external angle (β 1) of 190° to 225°, a third segment (S 3) which adjoins this second segment at an external angle (β 2) of 165° to 175°, and a fourth segment (S 4) which adjoins this third segment at an external angle (β 3) of 200° to 210°, wherein the total width of the second, third and fourth segments (S 2, S 3, S 4), projected onto a reference line (g 2) running at an angle (α') of 15° in relation to the second segment (S 2), is 20.0 mm to 45.0 mm and characterized in that the fourth segment (S 4) has a width (b 4) of 20% to 35% of the total width in this projection. the outer contour region is made up of three adjoining segments (S 2, S 3, S 4), specifically a second segment (S 2) which adjoins the first segment (S 1), which comes into contact with the rim flange, at an external angle (β 1) of 190° to 225°, a third segment (S 3) which adjoins this second segment at an external angle (β 2) of 165° to 175°, and a fourth segment (S 4) which adjoins this third segment at an external angle (β 3) of 200° to 210°, wherein the total width of the second, third and fourth segments (S 2, S 3, S 4), projected onto a reference line (g 2) running at an angle (α') of 15° in relation to the second segment (S 2), is 20.0 mm to 45.0 mm and characterized in that the fourth segment (S 4) has a width (b 4) of 20% to 35% of the total width in this projection.
An active noise reduction system comprising an electroacoustic plasma transducer for mounting in an installation structure and an acoustic sensing system, the electroacoustic plasma transducer comprising a plasma electrode arrangement including a collector electrode and a corona electrode, and a control system connected to the plasma electrode arrangement for supplying power to the plasma electrode arrangement, the control system comprising a controller, and a amplification circuit, the acoustic sensing system connected to the control system providing a measurement signal of an environmental sound to control the output of the electroacoustic plasma transducer for reducing noise, characterised in that: the control system comprises a filter implementing a control transfer function θ ( ω) based on an analytical model of the electroacoustic plasma transducer, the filter implementing said control transfer function θ ( ω) being configured to achieve a frequency-dependent target acoustic impedance Z tg ( ω). the control system comprises a filter implementing a control transfer function θ ( ω) based on an analytical model of the electroacoustic plasma transducer, the filter implementing said control transfer function θ ( ω) being configured to achieve a frequency-dependent target acoustic impedance Z tg ( ω).