mhurhangee/ep-ind-claims huggingface dataset:
A process of manufacturing a piece of aluminum, aluminum alloy or light alloy, the process comprising the following steps: - making a salt powder core, - introducing the obtained core to the desired shapes into a foundry mold to achieve the shape to be obtained, - making a foundry preform including the salt powder core, by foundry casting, - forging said preform with its core in order to obtain the final shape of the part to be obtained, - evacuating the core, the process being characterized in that the core undergoes for its shaping an operation of isostatic compression of the salt powder, and in that said preform with its core is forged at a pressure ranging from 600 and 700 MPa. - making a salt powder core, - introducing the obtained core to the desired shapes into a foundry mold to achieve the shape to be obtained, - making a foundry preform including the salt powder core, by foundry casting, - forging said preform with its core in order to obtain the final shape of the part to be obtained, - evacuating the core,
Method for anonymizing a user identity and/or user data of a subscriber of a data protection service, wherein a first third party service and a second third party service are accessed by a computing device of the subscriber via the telecommunications network, the computing device being connected to the telecommunications network, wherein in case that the first third party service requests the transmission of user related data from the data protection service, the data protection service transmits user related data being data related to the user identity and/or user data, wherein the user identity and/or the user data are at least partly anonymized with respect to the first third party service according to a first set of access rules, wherein in case that the second third party service requests the transmission of user related data from the data protection service, the data protection service transmits user related data being data related to the user identity and/or user data, wherein the user identity and/or the user data are at least partly anonymized with respect to the second third party service according to a second set of access rules, wherein the assignment of the first third party service and/or the second third party service to the first set of access rules and/or the second set of access rules is changed via the telecommunications network, by means of the computing device of the subscriber of the data protection service, wherein the first third party service is an application provided to the computing device together with the first set of access rules as a predefined set of access rules in a trusted marketplace, and the second third party service is an application provided to the computing device together with the second set of access rules as a predefined set of access rules in a trusted marketplace, wherein according to the first set of access rules a fake piece of data is transmitted as part of the user related data to the first third party service, wherein the fake piece of data is generated randomly or pseudo-randomly.
A composition comprising a polyhydroxyoxoaluminum cation detectable at 76 ppm by 27 Al NMR that is present in a relative abundance on a 27 Al NMR spectrograph that is greater than any other polyhydroxyoxoaluminum cation detectable by 27 Al NMR.
An outsole for a sports shoe, in particular a soccer shoe, comprising: a. an integral sole plate, extending from a heel part via a midfoot part into a forefoot part of the outsole, wherein the heel part of the integral sole plate comprises a heel cup that is arranged to support a foot of a wearer of the sports shoe from the side and the rear side; b. at least one first reinforcing rib integrated into the sole plate; and c. a reinforcing plate arranged above or below the at least one first reinforcing rib, wherein the reinforcing plate comprises on a side directed to the sole plate at least one second reinforcing rib which extends at least partially parallel to the at least one first reinforcing rib. a. an integral sole plate, extending from a heel part via a midfoot part into a forefoot part of the outsole, wherein the heel part of the integral sole plate comprises a heel cup that is arranged to support a foot of a wearer of the sports shoe from the side and the rear side; b. at least one first reinforcing rib integrated into the sole plate; and c. a reinforcing plate arranged above or below the at least one first reinforcing rib, wherein the reinforcing plate comprises on a side directed to the sole plate at least one second reinforcing rib which extends at least partially parallel to the at least one first reinforcing rib.
A circuit for use with a contactor including at least one contact, said circuit comprising: a first segment comprising: a voltage source; a first coil; a second coil; and a first transistor, wherein said first segment is configured to selectively conduct a closing current through said first coil, said second coil, and said first transistor to close the at least one contact; and a second segment comprising: said first coil; a second transistor; and a first diode, wherein said second segment is configured to selectively conduct a holding current through said first coil, said second transistor, and said first diode to hold the at least one contact closed, characterized in that said first diode is connected directly to one end of the first coil and arranged such that substantially all current produced by said voltage source flows through said first coil, with the other end of the first coil directly connected with the first transistor, and the first coil and the second coil connected in series. a first segment comprising: a voltage source; a first coil; a second coil; and a first transistor, wherein said first segment is configured to selectively conduct a closing current through said first coil, said second coil, and said first transistor to close the at least one contact; and a voltage source; a first coil; a second coil; and a first transistor, wherein said first segment is configured to selectively conduct a closing current through said first coil, said second coil, and said first transistor to close the at least one contact; and a second segment comprising: said first coil; a second transistor; and a first diode, wherein said second segment is configured to selectively conduct a holding current through said first coil, said second transistor, and said first diode to hold the at least one contact closed, characterized in that said first diode is connected directly to one end of the first coil and arranged such that substantially all current produced by said voltage source flows through said first coil, with the other end of the first coil directly connected with the first transistor, and the first coil and the second coil connected in series. said first coil; a second transistor; and a first diode, wherein said second segment is configured to selectively conduct a holding current through said first coil, said second transistor, and said first diode to hold the at least one contact closed, characterized in that said first diode is connected directly to one end of the first coil and arranged such that substantially all current produced by said voltage source flows through said first coil, with the other end of the first coil directly connected with the first transistor, and the first coil and the second coil connected in series.
A negative electrode comprising: a current collector; and a negative electrode active material layer disposed on the current collector, wherein the negative electrode active material layer includes a conductive material, a negative electrode active material, and a binder, the negative electrode active material includes a silicon-based active material having a convexity of 0.8 or more as measured using a particle shape analyzer, and the convexity is defined by the following Formula 1. Convexity = Convex hull perimeter / Actual perimeter a current collector; and a negative electrode active material layer disposed on the current collector, wherein the negative electrode active material layer includes a conductive material, a negative electrode active material, and a binder, the negative electrode active material includes a silicon-based active material having a convexity of 0.8 or more as measured using a particle shape analyzer, and the convexity is defined by the following Formula 1. Convexity = Convex hull perimeter / Actual perimeter
An adhesive comprising: a modified olefin polymer that is obtainable by modifying a polymer (a) of a C2 to C20 α-olefin having a structural unit derived from a C4 to C20 α-olefin with a monomer (b) having a functional group capable of reacting with an isocyanate group and a polyisocyanate, wherein the heat of fusion of the modified olefin polymer, as measured in accordance with JIS K7122 is 3 J/g or more and 50 J/g or less, and wherein the melting point of the modified olefin polymer is 40°C or more and less than 100°C. a modified olefin polymer that is obtainable by modifying a polymer (a) of a C2 to C20 α-olefin having a structural unit derived from a C4 to C20 α-olefin with a monomer (b) having a functional group capable of reacting with an isocyanate group and a polyisocyanate, wherein the heat of fusion of the modified olefin polymer, as measured in accordance with JIS K7122 is 3 J/g or more and 50 J/g or less, and wherein the melting point of the modified olefin polymer is 40°C or more and less than 100°C.
A cooking appliance for preparing food to be cooked, comprising at least two heating devices (14, 16) which each have a predetermined maximum heating power, a controller which controls the heating devices (14, 16), a programmable connection value memory in which an admissible connection power value of the cooking appliance is deposited, and a cooking process memory in which cooking processes to be executed are deposited, wherein the controller is configured to control and/or regulate the power consumption of the heating devices (14, 16) with regard to forthcoming cooking processes and the admissible connection power of the cooking appliance, and wherein the controller is configured to calculate the future power demand and compare it with the deposited connection power value, in order to optimally distribute the available connection power to the individual heating devices by distributing the available connection power from the controller to the forthcoming cooking processes, so that the power consumption of the individual heating devices is adjusted to each other, whereby the controller is configured to operate the heating devices (14, 16) such that the connection power does not exceed the deposited connection power value at any time.
An appliance for drying laundry comprising an appliance cabinet, a laundry treatment chamber inside the cabinet, a drying air recirculation path for causing recirculation of the drying air into/out from the laundry treatment chamber, the drying air recirculation path being at least partly external to the laundry treatment chamber, a drying air moisture condensing and heating system (215,220,225) located in the drying air recirculation path for dehydrating the moisture-laden drying air leaving the laundry treatment chamber and heating the dehydrated drying air before it re-enters into the laundry treatment chamber, wherein said drying air moisture condensing and heating system comprises a first heat exchanger and a second heat exchanger of a heat pump (215,220,225,210), and further comprising a drying air propeller inside the drying air recirculation path and a Joule-effect drying air heater, downstream the second heat exchanger, energizable for contributing to the heating of the drying air, wherein the appliance comprises a user interface comprising a laundry treatment cycle selector operable by a user for selecting a laundry treatment cycle, and a control unit adapted to control the machine operation, characterized in that the user interface comprises a command input means distinct from said laundry treatment cycle selector and operable by the user for imparting to the appliance an energization command to energize the Joule-effect heater, and in that during the execution of the laundry treatment cycle selected by the user, said control unit causes the selective energization of said Joule-effect drying air heater based on said energization command imparted by the user, so that the activation of the Joule-effect drying air heater is not systematical, being instead decided by the user, who, for having the Joule-effect heater activated, has to input a specific command.
A laser system for freeing downhole equipment (330, 430, 530) from a wellbore (102, 336, 436, 536), characterized in that it comprises: a laser tool (202, 302, 402, 502), with an inner diameter larger than an outer diameter of the downhole equipment, the laser tool comprising means for generating a ring-shaped collimated laser beam (216, 316, 416, 517); and a work string (332, 532) with the inner diameter larger than the outer diameter of the downhole equipment, wherein the laser tool (202, 302, 402, 502) is installed on the work string (332, 532), wherein the work string (332, 532) is lowered around the downhole equipment (330, 430, 530), and wherein upon lowering the work string (332, 532) to a position in which the laser tool (202, 302, 402, 502) is located proximate to an obstruction of the downhole equipment, the laser tool (202, 302, 402, 502) emits the ring-shaped collimated laser beam (216, 316, 416, 517) so as to clear out an annulus space (340, 440, 540) between the downhole equipment (330, 430, 530) and a wellbore wall (338, 438, 538) in order to free the downhole equipment (330, 430, 530). a laser tool (202, 302, 402, 502), with an inner diameter larger than an outer diameter of the downhole equipment, the laser tool comprising means for generating a ring-shaped collimated laser beam (216, 316, 416, 517); and a work string (332, 532) with the inner diameter larger than the outer diameter of the downhole equipment, wherein the laser tool (202, 302, 402, 502) is installed on the work string (332, 532), wherein the work string (332, 532) is lowered around the downhole equipment (330, 430, 530), and wherein upon lowering the work string (332, 532) to a position in which the laser tool (202, 302, 402, 502) is located proximate to an obstruction of the downhole equipment, the laser tool (202, 302, 402, 502) emits the ring-shaped collimated laser beam (216, 316, 416, 517) so as to clear out an annulus space (340, 440, 540) between the downhole equipment (330, 430, 530) and a wellbore wall (338, 438, 538) in order to free the downhole equipment (330, 430, 530).
Electric module, comprising - a carrier having a first thermal expansion coefficient K 1, a first mounting point and a second mounting point, - a MEMS component with MEMS structures (ME, BP), a second thermal expansion coefficient K 2 ≠ K 1, a first mounting point and a second mounting point, - a first mechanical connection between the first mounting point of the carrier and the first mounting point of the component, - a second mechanical connection between the second mounting point of the carrier and the second mounting point of the component with a compensation structure with a thermal expansion coefficient K k, wherein - the mounting points on the MEMS component are spaced apart by a horizontal distance d 1 and the mounting points on the carrier are spaced apart by a horizontal distance d 2, - the values for d 1 and d 2 are selected such that in the case of a change in the temperature the compensation structure compensates the different changes in length of d 1 and d 2, and in the case of different temperatures the MEMS component is connected in a stress-free fashion to the carrier, - the compensation structure bridges the distance Δd=d 2 -d 1 along the connecting direction between the two second mounting points, and - the equation d 2 =d 1 (K K -K 1) / (K K -K 2) is satisfied. - a carrier having a first thermal expansion coefficient K 1, a first mounting point and a second mounting point, - a MEMS component with MEMS structures (ME, BP), a second thermal expansion coefficient K 2 ≠ K 1, a first mounting point and a second mounting point, - a first mechanical connection between the first mounting point of the carrier and the first mounting point of the component, - a second mechanical connection between the second mounting point of the carrier and the second mounting point of the component with a compensation structure with a thermal expansion coefficient K k, wherein - the mounting points on the MEMS component are spaced apart by a horizontal distance d 1 and the mounting points on the carrier are spaced apart by a horizontal distance d 2, - the values for d 1 and d 2 are selected such that in the case of a change in the temperature the compensation structure compensates the different changes in length of d 1 and d 2, and in the case of different temperatures the MEMS component is connected in a stress-free fashion to the carrier, - the compensation structure bridges the distance Δd=d 2 -d 1 along the connecting direction between the two second mounting points, and - the equation d 2 =d 1 (K K -K 1) / (K K -K 2) is satisfied.
An electronic device (200, 400) comprising: a housing; a display viewable through at least a portion of a front surface of the housing; a rear cover disposed on a rear surface of the housing; a first electrode disposed on a lateral surface of the housing; and second and third electrodes (282, 283) disposed at different positions on the rear cover, wherein the first electrode, the second electrode, and the third electrode include a conductive material that is a compound containing titanium (Ti), aluminum (Al), chromium (Cr), silicon (Si), carbon, and nitrogen, and wherein the conductive material includes titanium (Ti) of about 1 to 7% by weight, aluminum (Al) of about 1 to 7% by weight, chromium (Cr) of about 15 to 35% by weight, silicon (Si) of about 3 to 15% by weight, carbon of about 8 to 25% by weight, and nitrogen of about 15 to 35% by weight. a housing; a display viewable through at least a portion of a front surface of the housing; a rear cover disposed on a rear surface of the housing; a first electrode disposed on a lateral surface of the housing; and second and third electrodes (282, 283) disposed at different positions on the rear cover, wherein the first electrode, the second electrode, and the third electrode include a conductive material that is a compound containing titanium (Ti), aluminum (Al), chromium (Cr), silicon (Si), carbon, and nitrogen, and wherein the conductive material includes titanium (Ti) of about 1 to 7% by weight, aluminum (Al) of about 1 to 7% by weight, chromium (Cr) of about 15 to 35% by weight, silicon (Si) of about 3 to 15% by weight, carbon of about 8 to 25% by weight, and nitrogen of about 15 to 35% by weight.
Filtering apparatus for plastic melts, having a filter change device, at least one filter housing, at least one filter bolt (5, 6) mounted so as to be axially displaceable therein, which filter bolt (5, 6) has at least one filter chamber (9, 10), which extends transverse to its longitudinal axis (7, 8), with at least one filter screen (11, 12), said filter chamber (9, 10) being aligned horizontally in an operating position thereof during a filtering operation and being in fluid communication with at least one fluid feed channel and at least one fluid discharge channel in said filter housing, said filter chamber (9, 10) being adapted to be moved into a filter screen change position outside said filter housing for changing said filter screen (11, 12), said filter change device having at least one actuator which drives a thrust mechanism and axially displaces said filter bolt (5, 6) with said filter screen (11, 12) in the longitudinal direction of said filter bolt (5, 6) during a thrust movement of said thrust mechanism into said filter screen change position, characterized in that a slotted link guide is provided which, during displacement into the filter change position, causes said filter bolt (5, 6) to pivot from the horizontal alignment of the filter chamber (9, 10) in its operating position into said filter screen change position, in which position said filter chamber (9, 10) is then aligned vertically.
A turbine engine vane assembly comprising: a vane; a shroud ring supporting the vane and comprising an outer surface, an inner surface, and a protrusion formed on the outer surface, said shroud ring defining an aperture extending from the outer surface to the inner surface; a cavity seal comprising a cavity outer surface, a cavity inner surface, and a protrusion receiving portion corresponding to the protrusion of the shroud ring, said cavity seal defining a securement receiving portion extending from the cavity outer surface to the cavity inner surface, said securement receiving portion comprising a deformation receiver positioned on a periphery of the securement receiving portion and extending peripherally away from a periphery of the securement receiving portion; and a securement mechanism comprising a deformable rim at a first end and a key at a second end, said securement mechanism adapted for insertion through the aperture and the securement receiving portion, wherein upon insertion, said key protrudes from the securement receiving portion and the aperture at the cavity inner surface and the inner surface of the shroud ring, said securement mechanism being rotatable between a first configuration and a second configuration, wherein in the second configuration, said key matingly engages the shroud ring such that an outer surface of the key abuts the inner surface of the shroud ring, and wherein when a pressure is exerted against the securement mechanism at the first end a portion of the deformable rim is received in the deformation receiver of the cavity seal. a vane; a shroud ring supporting the vane and comprising an outer surface, an inner surface, and a protrusion formed on the outer surface, said shroud ring defining an aperture extending from the outer surface to the inner surface; a cavity seal comprising a cavity outer surface, a cavity inner surface, and a protrusion receiving portion corresponding to the protrusion of the shroud ring, said cavity seal defining a securement receiving portion extending from the cavity outer surface to the cavity inner surface, said securement receiving portion comprising a deformation receiver positioned on a periphery of the securement receiving portion and extending peripherally away from a periphery of the securement receiving portion; and a securement mechanism comprising a deformable rim at a first end and a key at a second end, said securement mechanism adapted for insertion through the aperture and the securement receiving portion, wherein upon insertion, said key protrudes from the securement receiving portion and the aperture at the cavity inner surface and the inner surface of the shroud ring, said securement mechanism being rotatable between a first configuration and a second configuration, wherein in the second configuration, said key matingly engages the shroud ring such that an outer surface of the key abuts the inner surface of the shroud ring, and wherein when a pressure is exerted against the securement mechanism at the first end a portion of the deformable rim is received in the deformation receiver of the cavity seal.