mhurhangee/ep-ind-claims huggingface dataset:
Method for implementing a starting device for a thermal engine fitted to a motor vehicle comprising an electric starter, an electric power supply network interposed between the electric starter and an electric power source, a set of super-capacitors connected to the electric power supply network forming an energy store capable of being called upon to support the electrical power source during a first start or a restart of the heat engine, the method comprising a step of detecting an undervoltage, characterized in that the method comprises a step of calculating a theoretical support time Tt by a supervision computer during which the set of super-capacitors is placed in series with the electrical power source to support said electrical power source, this calculation step comprising: • a first phase of calculation of a first intermediate support time Ti determined according to a water-engine temperature hem, • a second phase of calculation of a second support time intermediate Ti. determined as a function of a state of charge E of an electric power source of the heat engine, and • a third phase of calculation of a third intermediate support time Ti- determined according to a temperature es of a electrical power source for the heat engine, • a step for comparing intermediate support times to identify the longest intermediate support time that constitutes the theoretical support time Tt, - a step of supporting the set of super-capacitors to the electrical power source for the theoretical support time Tt, if an undervoltage is detected. • a first phase of calculation of a first intermediate support time Ti determined according to a water-engine temperature hem, • a second phase of calculation of a second support time intermediate Ti. determined as a function of a state of charge E of an electric power source of the heat engine, and • a third phase of calculation of a third intermediate support time Ti- determined according to a temperature es of a electrical power source for the heat engine, • a step for comparing intermediate support times to identify the longest intermediate support time that constitutes the theoretical support time Tt, - a step of supporting the set of super-capacitors to the electrical power source for the theoretical support time Tt, if an undervoltage is detected.
A kit for anchoring objects, such as railings, handrails, safety bars, bicycle stands, bollards, lamps, signs, waste bins, banks or similar furniture, in a ground, the kit being composed of at least one embedding sleeve configured to be inserted into the ground and serving to accommodate a vertically oriented post (4, 5) of the object in question and at least one cover device covering the top of the embedding sleeve when the post (4, 5) is inserted, the cover device being captively connected to the embedding sleeve when in the use state, and the embedding sleeve having a clamping device for clamping the vertically oriented post (4, 5) of the object in question and/or the cover device in question, characterized in that the cover device has a cover plate placed on the top of the embedding sleeve when in the use state, a projection being provided on the side of the cover plate facing the embedding sleeve, the projection projecting into an inner channel of the embedding sleeve and being clamped between the vertically oriented post (4, 5) of the object in question, which is supported on a side of the inner channel of the embedding sleeve, and the clamping device.
Concealed hinge for attaching a leaf of a window or door in a fixed frame that is composed of frame profiles, whereby the hinge contains a frame section and a leaf section and whereby the leaf section is intended to be attached to the leaf and is provided with a hook-shaped part for connecting with the frame section and whereby the frame section is intended to be attached to a wall of the frame profile and to this end is provided at each end with a flange and whereby the frame section is provided with a recess for the hook-shaped part of the leaf section which is hingeably connected with the frame section by means of a shaft, whereby the frame section is manufactured from an extruded basic profile with a first wall and at least a first channel at a distance from said first wall for the shaft of the hinge or a profiling of the first wall in which such channel can be provided, whereby the basic profile is removed at both its head ends over a length up to said first wall to form said flanges and whereby the first wall and the first channel or the profiling provided for said channel are removed in a central section to form said recess for the hook-shaped part of the leaf section and whereby the remaining section of the first channel or of the profiling after fitting a first channel forms a passage for the shaft of the hinge, whereby the frame section is intended to be mounted in a recess of the frame profile provided for this purpose, whereby the hinge and the recess are dimensioned such that the hinge is slideable upward over a certain length in the recess of the frame profile, whereby in said flanges, holes are provided for screws or bolts for attachment of the flanges against the frame profile, whereby at least one of the holes in the flanges is a slotted hole which extends longitudinally (X-X') relative to the basic profile for a possible height adjustment of the frame section in mounted condition, wherein for the height adjustment of the frame section the basic profile is provided with a second channel which is removed on the level of the central recess in the frame section and in which an adjusting screw is fitted.
A tramcar power system, comprising: a fuel cell, a super capacitor, a power battery, an unidirectional direct-current converter, a first bi-directional direct-current converter, a second bi-directional direct-current converter, a direct-current bus, an inverter, and a master control unit, wherein the fuel cell is coupled to the unidirectional direct-current converter, the super capacitor is coupled to the first bi-directional direct-current converter, and the power battery is coupled to the second bi-directional direct-current converter; the unidirectional direct-current converter, the first bi-directional direct-current converter and the second bi-directional direct-current converter are coupled to the inverter via the direct-current bus; the inverter is coupled to a motor of a tramcar; the fuel cell, the super capacitor, the power battery, the first bi-directional direct-current converter, the second bi-directional direct-current converter and the inverter are coupled to the master control unit; the master control unit is coupled to a tramcar controlling device of the tramcar; wherein the master control unit is configured to receive a signal sent from a vehicle controlling device of the tramcar; the master control unit is configured to control the super capacitor to supply electrical energy to the motor of the tramcar, if the signal received by the master control unit from the vehicle controlling device is a tramcar start signal or a tramcar acceleration signal; the master control unit is configured to control the fuel cell and/or the power battery to continue to supply electrical energy to the motor, or, control the fuel cell and/or the power battery to supply electrical energy to the motor, when the tramcar has not yet reached a target speed while the super capacitor has been completely discharged; and the master control unit is configured to control the super capacitor to supply electrical energy required for making up the balance power, when the tramcar has not yet reached a target speed while power provided by the fuel cell and/or the power battery is insufficient; the master control unit is configured to control the fuel cell and/or the power battery to continue to supply electrical energy to the motor, if the signal received by the master control unit from the vehicle controlling device is a steady-speed signal; and the master control unit is configured to control the fuel cell to supply electrical energy to the motor, and control the super capacitor and/or the power battery to absorb surplus braking feedback energy, or control the fuel cell to charge the super capacitor and/or the power battery, if the signal received by the master control unit from the vehicle controlling device is a brake signal or a deceleration signal.
A telescopic tube having an adjusting device comprising an inner toothing angularly interrupted by a longitudinal recess and a male element having an outer toothing angularly interrupted by a second recess so as to axially slide along said longitudinal recess in a first predetermined angular position and selectively engage said inner toothing in a second predetermined angular position different from said first predetermined angular position for rigidly connecting a bushing to said male element in the axial direction, wherein said bushing defines said inner toothing, said tube further comprising an edge contacted in angular direction in said predetermined angular position by one of said inner and outer toothings (7, 10) for defining an angular stop during the axial sliding; a first tube for accommodating said bushing and a second tube telescopically accommodating said first tube and fixedly mounted with respect to said male element.
A mudguard for vehicles, comprising at least one first half-mudguard that has, on at least one first free end which, during use, is arranged above a tire substantially at approximately the diameter of the tire at right angles to the ground, engagement means and grip means for detachable coupling with: a separate and identical second half-mudguard, which is also provided with engagement means and grip means; each one of said engagement means (4a, 4b) being arranged adjacent respectively to each one of said grip means (5a, 5b) so that each one affects half of the transverse extent of the respective first free end. a separate and identical second half-mudguard, which is also provided with engagement means and grip means; each one of said engagement means (4a, 4b) being arranged adjacent respectively to each one of said grip means (5a, 5b) so that each one affects half of the transverse extent of the respective first free end.
A method for preparing a compound of formula VI, comprising: deprotecting a protecting group R from a compound of formula V via a deprotection reaction in the presence of a catalyst in an organic solvent, wherein, R represents benzyl, allyl, 1-phenethyl, or optionally substituted benzyl at the 2 position to 6 position, such as 4-methoxybenzyl, 4-nitrobenzyl, 2-methylbenzyl, 4-chlorobenzyl, or 3-fluorobenzyl.
A method for controlling function calls in a portable data carrier within the framework of a use of the data carrier in a certain use environment, characterized by the steps in the portable data carrier: - checking (S4 - S7) a compatibility of a function to be executed with the use environment, with the sub-steps of checking: - calling of the function to be executed and receiving of a function result in dependence on the use environment of the data carrier; and - determining an incompatibility of the function with the use environment, if the function result indicates an execution error; and - calling (S8 - S11) an alternative function (fcp) of the data carrier to be ascertained by an incompatibility routine, if, upon checking the compatibility (S3 - S7), an incompatibility of the function is determined with the use environment, wherein the incompatibility routine yields the effect of the incompatible function in the use environment; and that, after detecting an incompatibility, when calls of the incompatible function to be executed occur, the alternative function call is carried out immediately instead of the incompatible function. - checking (S4 - S7) a compatibility of a function to be executed with the use environment, with the sub-steps of checking: - calling of the function to be executed and receiving of a function result in dependence on the use environment of the data carrier; and - determining an incompatibility of the function with the use environment, if the function result indicates an execution error; and - calling of the function to be executed and receiving of a function result in dependence on the use environment of the data carrier; and - determining an incompatibility of the function with the use environment, if the function result indicates an execution error; and - calling (S8 - S11) an alternative function (fcp) of the data carrier to be ascertained by an incompatibility routine, if, upon checking the compatibility (S3 - S7), an incompatibility of the function is determined with the use environment, wherein the incompatibility routine yields the effect of the incompatible function in the use environment; and that, after detecting an incompatibility, when calls of the incompatible function to be executed occur, the alternative function call is carried out immediately instead of the incompatible function.
An underwater debris suction apparatus, comprising a power device, a filter device, and a collection device; wherein the power device comprises a suction component and a power drive device configured to provide power for the suction component; the suction component is at least partially located above the filter device or the suction component is entirely located in a space of the filter device; an upper end of the collection device is provided with a first opening; a lower end of the filter device is connected to the upper end of the collection device, and the lower end of the filter device is provided with a second opening corresponding to the first opening; wherein the suction component is configured, during operation of the suction component, to suck unfiltered pool water to enter the filter device through a water inlet channel and then, to flow to a side wall of the filter device, so that filtered water is discharged from the side wall of the filter device, and debris failing to be discharged from the side wall of the filter device falls into the collection device; characterized in that no internal passage for unfiltered pool water to pass through in a middle of the suction component is found. a power device, a filter device, and a collection device; wherein the power device comprises a suction component and a power drive device configured to provide power for the suction component; the suction component is at least partially located above the filter device or the suction component is entirely located in a space of the filter device; an upper end of the collection device is provided with a first opening; a lower end of the filter device is connected to the upper end of the collection device, and the lower end of the filter device is provided with a second opening corresponding to the first opening; wherein the suction component is configured, during operation of the suction component, to suck unfiltered pool water to enter the filter device through a water inlet channel and then, to flow to a side wall of the filter device, so that filtered water is discharged from the side wall of the filter device, and debris failing to be discharged from the side wall of the filter device falls into the collection device; characterized in that no internal passage for unfiltered pool water to pass through in a middle of the suction component is found.
Process for manufacturing 1-amino-1,3,3,5,5-pentamethyl-cyclohexane mesylate comprising step (i): (i) reacting 1-amino-1,3,3,5,5-pentamethylcyclohexane with methane sulfonic acid in a solvent, wherein the solvent is anisole. (i) reacting 1-amino-1,3,3,5,5-pentamethylcyclohexane with methane sulfonic acid in a solvent, wherein the solvent is anisole.
Method for producing an iron with a base, which has markings (6, 8) on the sliding surface, with the steps: - Altering material properties of the base in target regions of the markings (6, 8) by means of electromagnetic radiation of a laser, and - Anodising the sliding surface of the base, wherein the markings (6, 8) and marking-free surface sections are oxidised differently on the surface. - Altering material properties of the base in target regions of the markings (6, 8) by means of electromagnetic radiation of a laser, and - Anodising the sliding surface of the base, wherein the markings (6, 8) and marking-free surface sections are oxidised differently on the surface.
System for media content delivery to a media destination device of a plurality of remote media destinations devices (DD1, DD2, DD3) included in said system, said system further comprising an input reception device, adapted to receive an input for selecting said media content, said input identifying said media content, said system comprising a media delivery device adapted to select said media content based on said input of said input reception device, said media delivery device being coupled to each remote media destination device of said plurality of remote media destinations devices (DD1, DD2, DD3), wherein said system further comprises: a. an associating device, being coupled between said input reception device and said media delivery device and adapted to receive said input identifying said media content at an input reception part of the associating device, and to associate said input reception device with at least one remote media destination device of said plurality of remote media destination devices (DD1, DD2, DD3) based on an identification of said input reception device and wherein said association device further comprises an association forwarding part, adapted to forward said association of said input reception device with said at least one remote media destination device and said input identifying said media content towards said media delivery device for provisioning said media content to each of said at least one remote media destination device by a media provisioning part of said media delivery device. a. an associating device, being coupled between said input reception device and said media delivery device and adapted to receive said input identifying said media content at an input reception part of the associating device, and to associate said input reception device with at least one remote media destination device of said plurality of remote media destination devices (DD1, DD2, DD3) based on an identification of said input reception device and wherein said association device further comprises an association forwarding part, adapted to forward said association of said input reception device with said at least one remote media destination device and said input identifying said media content towards said media delivery device for provisioning said media content to each of said at least one remote media destination device by a media provisioning part of said media delivery device.
Low boron content culinary cooking glass composition comprising, by weight, SiO 2 +Al 2 O 3 more than 73.0%, CaO+MgO at least 8.0%, SiO 2 from 70.0 to 78.0%, Na 2 O from 8.0 to 12.0%, CaO from 4.0 to 8.0%, Al 2 O 3 less than 5.0%, MgO from 3.0 to 11.0%, K 2 O less than 2.0%, SrO less than 5.0%, SO 3 less than 0.25% and B 2 O 3 less than 0.20%, having a glass transition temperature Tg less than 700°C, preferably less than 640°C, a coefficient of expansion less than 75.0 10 -7 K -1 and a specific thermal stress less than 0.75 MPa/K.
A capacitive fingernail system (150, 250, 350, 450, 650) adapted to fit on a fingernail and for use with a capacitive touchscreen, said system comprising: a. a conductive base layer (10, 110, 210, 310) that is secured to the fingernail; b. a dielectric medium (120, 220, 230) on top of the conductive base layer; and c. a conductive top layer (30, 130, 230 330) that is located on top of the dielectric medium; wherein the capacitive fingernail system is configured to store an effective amount of charge to permit the fingernail to successfully interact with the capacitive touchscreen. a. a conductive base layer (10, 110, 210, 310) that is secured to the fingernail; b. a dielectric medium (120, 220, 230) on top of the conductive base layer; and c. a conductive top layer (30, 130, 230 330) that is located on top of the dielectric medium;
A communication device for handling a scheduling request, SR, for a logical channel, LC, comprising: a storage device; and a processing circuit, coupled to the storage device, wherein the storage device stores, and the processing circuit is configured to execute, instructions of: transmitting a first SR for a first LC to a network and starting a first sr-ProhibitTimer associated to the first LC, when the first SR is triggered by the first LC and the first sr-ProhibitTimer is not running; not transmitting the first SR for the first LC, when the first SR is triggered by the first LC and the first sr-ProhibitTimer is running; transmitting a second SR for a second LC to the network and starting a second sr-ProhibitTimer associated to the second LC, when the second SR is triggered by the second LC and the second sr-ProhibitTimer is not running; and not transmitting the second SR triggered by the second LC, when the second SR is triggered by the second LC and the second sr-ProhibitTimer is running. a storage device; and a processing circuit, coupled to the storage device, wherein the storage device stores, and the processing circuit is configured to execute, instructions of: transmitting a first SR for a first LC to a network and starting a first sr-ProhibitTimer associated to the first LC, when the first SR is triggered by the first LC and the first sr-ProhibitTimer is not running; not transmitting the first SR for the first LC, when the first SR is triggered by the first LC and the first sr-ProhibitTimer is running; transmitting a second SR for a second LC to the network and starting a second sr-ProhibitTimer associated to the second LC, when the second SR is triggered by the second LC and the second sr-ProhibitTimer is not running; and not transmitting the second SR triggered by the second LC, when the second SR is triggered by the second LC and the second sr-ProhibitTimer is running. transmitting a first SR for a first LC to a network and starting a first sr-ProhibitTimer associated to the first LC, when the first SR is triggered by the first LC and the first sr-ProhibitTimer is not running; not transmitting the first SR for the first LC, when the first SR is triggered by the first LC and the first sr-ProhibitTimer is running; transmitting a second SR for a second LC to the network and starting a second sr-ProhibitTimer associated to the second LC, when the second SR is triggered by the second LC and the second sr-ProhibitTimer is not running; and not transmitting the second SR triggered by the second LC, when the second SR is triggered by the second LC and the second sr-ProhibitTimer is running.