mhurhangee/ep-ind-claims huggingface dataset:
A resistance adjusting circuit comprising: a first power source selectively connectable via one selector to a first terminal of a reference resistor to be connected to the resistance adjusting circuit, and configured to output a first voltage; a first current source selectively connectable via another selector to a second terminal of the reference resistor and configured to output a first current based on a reference current which is set by a reference current generating circuit; a first variable resistor configured to include a first terminal, the first terminal being connected to an output terminal of the first power source; a second current source connected to a second terminal of the first variable resistor and configured to output a second current obtained by multiplying the first current by a reciprocal ratio, the reciprocal ratio being obtained as a reciprocal number of a ratio of a target resistance value of the first variable resistor to a resistance value of the reference resistor; and a controller configured to set the resistance value of the first variable resistor so that a voltage value at the second terminal of the reference resistor and a voltage value at a connecting part of the first variable resistor and the second current source become equal to each other. a first power source selectively connectable via one selector to a first terminal of a reference resistor to be connected to the resistance adjusting circuit, and configured to output a first voltage; a first current source selectively connectable via another selector to a second terminal of the reference resistor and configured to output a first current based on a reference current which is set by a reference current generating circuit; a first variable resistor configured to include a first terminal, the first terminal being connected to an output terminal of the first power source; a second current source connected to a second terminal of the first variable resistor and configured to output a second current obtained by multiplying the first current by a reciprocal ratio, the reciprocal ratio being obtained as a reciprocal number of a ratio of a target resistance value of the first variable resistor to a resistance value of the reference resistor; and a controller configured to set the resistance value of the first variable resistor so that a voltage value at the second terminal of the reference resistor and a voltage value at a connecting part of the first variable resistor and the second current source become equal to each other.
A negative electrode for a lithium metal battery comprising: a negative current collector; an adhesive layer disposed on one surface or both surfaces of the negative current collector and including a binder and a conductive material; and a lithium metal thin membrane disposed on the adhesive layer, characterized in that the weight ratio of the conductive material and the binder in the adhesive layer is 0.25 - 4:1. a negative current collector; an adhesive layer disposed on one surface or both surfaces of the negative current collector and including a binder and a conductive material; and a lithium metal thin membrane disposed on the adhesive layer, characterized in that the weight ratio of the conductive material and the binder in the adhesive layer is 0.25 - 4:1.
Pharmaceutical or cosmetic carrier for topical administration substantially consisting of phosphatidylcholine; monoglyceride; fatty acid ester of C 1 -C 3 alcohol; volatile solvent selected from the group consisting of: ethanol; ethanol and C 3 -C 4 alcohol; ethanol and volatile silicone oil; and/or ethanol, C 3 -C 4 alcohol and volatile silicone oil; and wherein the carrier optionally comprises one or more members of the group consisting of antioxidant, colorant, odorant, preservative, and denaturant. ethanol; ethanol and C 3 -C 4 alcohol; ethanol and volatile silicone oil; and/or ethanol, C 3 -C 4 alcohol and volatile silicone oil; and wherein the carrier optionally comprises one or more members of the group consisting of antioxidant, colorant, odorant, preservative, and denaturant.
A press apparatus for manufacturing hot formed structural components, comprising: a fixed lower body, a mobile upper body and a mechanism configured to provide upwards and downwards press progression of the mobile upper body with respect to the fixed lower body, wherein the apparatus comprises: a cooling tool configured to cool down a previously heated blank (50; 60; 70; 80; 90) and a press tool configured to draw the blank and which is arranged downstream from the cooling tool, and a blank transfer mechanism to transfer the blank (50; 60; 70; 80; 90) from the cooling tool to the press tool, wherein the press tool comprises an upper pressing die connected to the mobile upper body and a lower pressing die connected to the fixed lower body, and characterised in that the cooling tool has an upper gas cooling tool connected to the mobile upper body and/or a lower gas cooling tool connected to the fixed lower body, wherein the upper gas cooling tool and/or the lower gas cooling tool are configured to provide a pressurized cooling gas flow to impinge on the blank. a cooling tool configured to cool down a previously heated blank (50; 60; 70; 80; 90) and a press tool configured to draw the blank and which is arranged downstream from the cooling tool, and a blank transfer mechanism to transfer the blank (50; 60; 70; 80; 90) from the cooling tool to the press tool, wherein the press tool comprises an upper pressing die connected to the mobile upper body and a lower pressing die connected to the fixed lower body, and characterised in that the cooling tool has an upper gas cooling tool connected to the mobile upper body and/or a lower gas cooling tool connected to the fixed lower body, wherein the upper gas cooling tool and/or the lower gas cooling tool are configured to provide a pressurized cooling gas flow to impinge on the blank.
A method for controlling access control with locking units, in particular locks, and electronic keys, in which access authorizations are stored and administered in a central computation unit, the keys are programmed with authorization information for a predetermined selection of locking units as a function of the respective access authorization, the authorization information is wirelessly transmitted from a key to a locking unit if access is sought, and the access authorization is determined in the locking unit as a function of the received authorization information, the programming of a key comprising transmitting the authorization information via a wireless telecommunication network to a wireless mobile telecommunication device and transferring the authorization information received by the mobile telecommunication device to a memory of the key, characterized in that the key is designed as an external identification medium to be used as a key independently of the telecommunication device and not having its own power supply, that the wireless transmission of the authorization information from the key to the locking unit is performed without the key's own power supply, and that the transfer of the authorization information received by the mobile telecommunication device to a memory of the key comprises using a write/read device for the external identification medium, and that the determination of the access authorization in the locking unit additionally comprises comparing a key identifier received by the key with a key identifier list stored in the locking unit, wherein, if there is a match of the received key identifier with a key identifier from the key identifier list, the access is denied, and the key identifier list is stored and administered in the central computation unit, transmitted to the mobile telecommunication device via the wireless telecommunication network, communicated from there to the external identification medium by means of the write/read device, and wirelessly sent from the identification medium to the locking unit, and stored in the locking unit.
A fluid dispenser comprising a fluid reservoir and a dispenser member, such as a pump, that is mounted on the reservoir, the dispenser member including a pusher for actuating it, the reservoir forming a leaktight slide cylinder and including a piston (2; 2') that slides in the cylinder in response to the dispenser member being actuated by pressing on the pusher, so as to decrease the working volume of the reservoir and keep the fluid out of contact with the outside air; the leaktight slide cylinder further containing a separator element (3a; 3b; 3c; 3d; 3e; 3f; 3g) that divides the reservoir into two compartments (Ri, Rs), namely a lower compartment (Ri) that is defined between the piston (2; 2') and the separator element (3a; 3b; 3c; 3d; 3e; 3f; 3g), and an upper compartment (Rs) that is defined between the separator element (3a; 3b; 3c; 3d; 3e; 3f; 3g) and the dispenser member, the separator element (3a; 3b; 3c; 3d; 3e; 3f; 3g) including at least one through hole (33; 33'; 33") that puts the two compartments (Ri, Rs) into communication with each other, the fluid dispenser being characterized in that the two compartments being filled entirely with fluid, such that there is no air therein and that, the separator element (3a; 3b; 3c; 3d; 3e; 3f; 3g) moves in the leaktight slide cylinder in response to the dispenser member being actuated by pressing on the pusher that results in fluid being dispensed.
A moisture-crosslinkable, polymeric composition comprising in weight percent based on the weight of the composition: 30 to 79 wt% of an ethylenic polymer of any crystallinity at room temperature; 2 to less than (<) 27 wt% of an ethylenic polymer other than the ethylenic polymer of in the moisture-crosslinkable, polymeric composition, and with (a) a crystallinity at room temperature of 34% to 55%, or 65% to 80%, and (b) an I 2 of 0.1 to 50 dg/min; 3 to 30 wt% of a halogenated flame retardant; 3 to 30 wt% an inorganic antimony flame retardant; 0.3 to 5 wt% of a graftable silane-containing compound; 0.01 to 20 wt% of a silanol condensation catalyst; 0.02 to 0.1 wt% peroxide initiator; and 0 to 10 wt% of at least one inorganic flame retardant other than the antimony flame retardant; wherein the ethylenic polymer contains equal to or greater than 50 weight percent (wt%), or a majority amount, of polymerized ethylene based on the weight of the polymer; and wherein room temperature is a temperature of 25 °C ± 4°C. 30 to 79 wt% of an ethylenic polymer of any crystallinity at room temperature; 2 to less than (<) 27 wt% of an ethylenic polymer other than the ethylenic polymer of in the moisture-crosslinkable, polymeric composition, and with (a) a crystallinity at room temperature of 34% to 55%, or 65% to 80%, and (b) an I 2 of 0.1 to 50 dg/min; 3 to 30 wt% of a halogenated flame retardant; 3 to 30 wt% an inorganic antimony flame retardant; 0.3 to 5 wt% of a graftable silane-containing compound; 0.01 to 20 wt% of a silanol condensation catalyst; 0.02 to 0.1 wt% peroxide initiator; and 0 to 10 wt% of at least one inorganic flame retardant other than the antimony flame retardant; wherein the ethylenic polymer contains equal to or greater than 50 weight percent (wt%), or a majority amount, of polymerized ethylene based on the weight of the polymer; and wherein room temperature is a temperature of 25 °C ± 4°C.
A method for restoring at least one portion of a paint body of a valuable historic vehicle comprising the following successive steps: a) paint stripping said paint body portion; b) performing a corundum blasting operation on said body portion, so as to make it rougher and prepared for the subsequent deposition; and c) depositing, after step b), a metal layer by hurling metal particles against said body portion so that they remain embedded therein. a) paint stripping said paint body portion; b) performing a corundum blasting operation on said body portion, so as to make it rougher and prepared for the subsequent deposition; and c) depositing, after step b), a metal layer by hurling metal particles against said body portion so that they remain embedded therein.
An aircraft comprising: - a structure, - a landing gear, mounted on the structure of the aircraft, and - at least one obstacle detector, wherein the obstacle detector is attached to an arm, said arm being mounted on the structure so as to be movable between a rest position, in which the arm is collapsed, and a detection position, in which the arm is deployed, characterized in that the landing gear is retractable and has a retracted configuration, in which the landing gear is accommodated in a box formed in the structure, and an extended configuration, in which the landing gear is deployed, the arm being mounted in the box of the landing gear, the obstacle detector being located in proximity to a lower portion of the landing gear distant from the structure of the aircraft, when the arm is deployed. - a structure, - a landing gear, mounted on the structure of the aircraft, and - at least one obstacle detector,
The present composition for extinguishant mainly comprises of composite A and compound B, wherein said Composite A further comprises Compound C and Compound B is water or deionised water; wherein further, said Compound C is in turn synthetic hydrated calcium silicate of density 60 to 450 kg/m 3; which includes range of Tobermorite, Xenotlite and Wollastonite; said Compound C contains negligible amounts of Fe 2 O 3, MgO and Al 2 O 3; wherein said Composite A has a particle size ranging from greater than zero μm to 72 μm and Compound B is at room temperature; wet composition of present composition for extinguishant comprises of 2% to 18% W/V of Composite A in Compound B, and dry composition for extinguishant comprises of Composite A: compound B = 82-98%:18-2%. wherein further, said Compound C is in turn synthetic hydrated calcium silicate of density 60 to 450 kg/m 3; which includes range of Tobermorite, Xenotlite and Wollastonite; said Compound C contains negligible amounts of Fe 2 O 3, MgO and Al 2 O 3; wherein said Composite A has a particle size ranging from greater than zero μm to 72 μm and Compound B is at room temperature; wet composition of present composition for extinguishant comprises of 2% to 18% W/V of Composite A in Compound B, and dry composition for extinguishant comprises of Composite A: compound B = 82-98%:18-2%.
Gas-turbine blade with a root and an airfoil, with the airfoil comprising an internal load carrier as well as an airfoil element enclosing the latter by forming a cavity extending along the longitudinal blade axis, wherein the load carrier is designed as a central element without cooling ducts and wherein the cooling air is introduced into the cavity via the root, characterized in that the load carrier is made of carbon fibres, with the load carrier being constituted of hollow carbon fibres, which are made as twisted string fibres from carbon nanotubes.
A closure (101, 601, 1101, 1501) for a container neck, the closure (101, 601, 1101, 1501) comprising a shell (102, 602, 1102, 1502) and a fitment (103, 501, 603, 901, 1201) releasably retained within the shell (102, 602, 1102, 1502), the fitment (103, 501, 603, 901, 1201) configured to be inserted into an operative position within a container neck (301, 701) having a bore diameter D when the closure (101, 601, 1101, 1501) is applied to the container neck (301, 701); the fitment (103, 501, 603, 901, 1201) comprising a body (104, 502, 604, 902, 1202) and engagement means (105, 503, 605, 903, 1203) extending radially outwardly from the body (104, 502, 604, 902, 1202); the engagement means (105, 503, 605, 903, 1203) in an extended condition relative to the body (104, 502, 604, 902, 1202) and releasably engaged with the shell (102, 602, 1102, 1502), to releasably retain the fitment (103, 501, 603, 901, 1201) within the shell (102, 602, 1102, 1502) prior to application of the closure (101, 601, 1101, 1501) to the container neck (301, 701), the engagement means (105, 503, 605, 903, 1203) defining a first span S1 that is greater than the bore diameter D when in said extended condition, the engagement means (105, 503, 605, 903, 1203) configured to be forced into a retracted condition relative to the body (104, 502, 604, 902, 1202) during insertion of the fitment (103, 501, 603, 901, 1201) into the container neck (301, 701), to release the fitment (103, 501, 603, 901, 1201) from the shell (102, 602, 1102, 1502), characterised in that the engagement means (105, 503, 605, 903, 1203) define a second span S2 that is less than the bore diameter D when in said retracted condition; and in that the engagement means (105, 503, 605, 903, 1203) are configured to be enclosed within the container neck (301, 701) when the fitment (103, 501, 603, 901, 1201) is in the operative position.
Electric motor for a positioning or pumping device of a motor vehicle, with a stator having a first winding and a second winding, wherein the second winding and the first winding can be controlled independently from one another, a rotor which magnetically interacts with the magnetic fields produced by energization of the windings (20, 22), and a sensor device for detecting the position of the rotor, wherein the sensor device comprises a multi-axis Hall element with two output signals (S1, S2), wherein each output signal (S1, S2) is assigned to a respective axis (A1, A2) such that magnetic field lines oriented in the direction of the axes (S1, S2) and the associated magnetic flux density are measured and the measured magnetic flux density and thus the output signals (S1, S2) change as a function of the rotor position, wherein the first output signal associated with the first axis is phase-shifted with respect to the second output signal associated with the second axis, wherein the first winding can be driven by using the first output signal and the second winding can be driven by using the second output signal, characterized in that the stator is a claw pole stator, wherein the claw pole stator comprises two claw pole stator elements (16, 18) which are arranged axially next to one another and each comprise a winding (20, 22) and a claw pole sheet metal pair (24, 26), and wherein a first claw pole stator element (16, 18) is arranged electrically twisted by 90° to a second claw pole stator element (16, 18) around an axial axis of the stator. a stator having a first winding and a second winding, wherein the second winding and the first winding can be controlled independently from one another, a rotor which magnetically interacts with the magnetic fields produced by energization of the windings (20, 22), and a sensor device for detecting the position of the rotor, wherein the sensor device comprises a multi-axis Hall element with two output signals (S1, S2), wherein each output signal (S1, S2) is assigned to a respective axis (A1, A2) such that magnetic field lines oriented in the direction of the axes (S1, S2) and the associated magnetic flux density are measured and the measured magnetic flux density and thus the output signals (S1, S2) change as a function of the rotor position, wherein the first output signal associated with the first axis is phase-shifted with respect to the second output signal associated with the second axis, wherein the first winding can be driven by using the first output signal and the second winding can be driven by using the second output signal, characterized in that the stator is a claw pole stator, wherein the claw pole stator comprises two claw pole stator elements (16, 18) which are arranged axially next to one another and each comprise a winding (20, 22) and a claw pole sheet metal pair (24, 26), and wherein a first claw pole stator element (16, 18) is arranged electrically twisted by 90° to a second claw pole stator element (16, 18) around an axial axis of the stator.
Rolling bearing having a first bearing ring, a second bearing ring and a claw pole generator, which is arranged between the two bearing rings (02, 03), comprising a sequence of magnetic poles which runs circumferentially along the first bearing ring, a sequence of magnetically permeable claws (12, 13) which is arranged along the circumference of the second bearing ring, and a coil, wherein the claws (12, 13) form, with the poles, magnetic circuits which surround the coil, wherein the magnetically permeable claws (12, 13) are arranged along the circumference of the second bearing ring only in sections, wherein the coil is arranged in the region of the magnetically permeable claws (12, 13), wherein the claw pole generator comprises two magnetically permeable metal claw plates (08, 09), which are situated axially opposite one another and have radially extending side faces, and claws (12, 13) which are angled in the axial direction, wherein the claws (12, 13) of the metal claw plates (08, 09) are arranged such that they alternately mesh one in the other, wherein the coil is surrounded by the metal claw plates (08, 09), and wherein the side faces of the metal claw plates (08, 09) have radial slots.
A sensor unit for sensing the angular position of a rotatable element with respect to a fixed element, comprising an encoder element which comprises a metallic frame,is fast with the rotatable element, and adapted to generate magnetic field variations as a function of its angular position, and a sensing element fast with the fixed element, adapted to sense the magnetic field variations, the sensing element being supported by a sensor body with a rotational axis and mounted in a metallic shielding casing fast with the fixed element, the shielding casing comprising an inner cylindrical wall, a radial bottom wall perpendicular to a rotation axis (X-X') of the rotatable element and an outer cylindrical wall, the walls and being centered on and parallel to the rotation axis (X-X'), the shielding casing further comprising at least two flux concentrators (668, 670) formed by tabs and adapted to deflect away from the sensing element an interfering magnetic field (L1, L2) in which the sensor unit operates, wherein the metallic frame of the encoder element defines with the flux concentrators (668, 670) and the shielding casing a preferred magnetic path surrounding the sensing element in a radial sectional plane with respect to the rotational axis of the sensor body, and wherein said flux concentrators (668, 670) extend in a plane substantially parallel to the radial bottom wall of the shielding casing, on the other side of the sensing element with respect to said bottom wall, and on both sides of the sensing element along the circumferential direction of the shielding casing.
A magnetic bearing drive circuit driven from a pair of Direct Current link voltage rails, said magnetic bearing drive circuit having at least one amplifier providing an output PWM drive signal for driving a magnetic bearing winding, said output PWM drive signal being provided to the magnetic bearing winding through a plurality of drive signal rails, said magnetic bearing drive circuit comprising: a pair of voltage offset devices (165, 175) coupled to the DC link voltage rails and arranged to provide a pair of offset catcher voltage rails (160, 170) from the DC link voltage rails; and primary clamping means coupled between each offset catcher voltage rail and a respective one of the drive signal rails. a pair of voltage offset devices (165, 175) coupled to the DC link voltage rails and arranged to provide a pair of offset catcher voltage rails (160, 170) from the DC link voltage rails; and primary clamping means coupled between each offset catcher voltage rail and a respective one of the drive signal rails.