mhurhangee/ep-ind-claims huggingface dataset:
A method of running an air inlet system upstream of one or more inlet air filters of a device protected by air filtration, wherein the method comprises: regulating the relative air humidity of the inlet air at the one or more inlet air filters in dependence of the inlet air filters differential pressure, whereby the differential pressure is a calculation of the difference between the pressures measured at two points and the two points are before the filter and after the filter, wherein the relative air humidity is set to amount between 70% and 90%.
A vacuum adiabatic body comprising: a first plate defining at least one portion of a wall for a first space; a second plate defining at least one portion of a wall for a second space having a different temperature from the first space; a seal that seals the first plate and the second plate to provide a third space that has a temperature between the temperature of the first space and the temperature of the second space and that is in a vacuum state; a support provided in the third space to maintain a gap in the third space; an exhaust port through which a gas in the third space is ejected; and a heat resistance unit that reduces heat transfer between the first plate and the second plate; wherein the heat resistance unit includes: a conductive resistance sheet configured to resist surface heat conduction along a wall for the third space, and a side frame connected to the conductive resistance sheet to define at least a portion of the wall adjacent to the third space, wherein the vacuum adiabatic body comprises at least two radiation resistance sheets in a plate shape inside the third space. a first plate defining at least one portion of a wall for a first space; a second plate defining at least one portion of a wall for a second space having a different temperature from the first space; a seal that seals the first plate and the second plate to provide a third space that has a temperature between the temperature of the first space and the temperature of the second space and that is in a vacuum state; a support provided in the third space to maintain a gap in the third space; an exhaust port through which a gas in the third space is ejected; and a heat resistance unit that reduces heat transfer between the first plate and the second plate; a conductive resistance sheet configured to resist surface heat conduction along a wall for the third space, and a side frame connected to the conductive resistance sheet to define at least a portion of the wall adjacent to the third space, wherein the vacuum adiabatic body comprises at least two radiation resistance sheets in a plate shape inside the third space.
A mechanical automotive vacuum pump with a housing arrangement enclosing a pumping chamber and rotatably supporting a pump rotor with a rotor body, wherein the rotor body is provided with a vane slit (21;21';21") wherein a slidable pump vane is supported which separates the pumping chamber into several rotating pumping compartments, a coupling structure and a single radial bearing are provided at a coupling-sided end portion of the rotor body and no radial bearing is provided at a vane-sided end portion of the rotor body so that the rotor body is radially supported cantilevered, characterised by a backing support cone structure (24;24';24") at the front end of the vane end portion, the backing support cone structure (24; 24';24") being defined by a conical ring of the rotor body and a corresponding static conical ring of the housing arrangement, the cone structure (24;24';24") having a cone angle (a) of between 5° and 85° with respect to the rotational axis of the pump rotor.
A method for wireless communication at a user equipment, UE, comprising: establishing a discontinuous reception, DRX, configuration comprising a first DRX on duration and a first DRX periodicity; receiving a DRX update indication on a broadcast channel, wherein the DRX update indication comprises a UE-specific indication whether a DRX on period is delayed in addition to a delay duration; identifying a DRX delay based at least in part on the DRX update indication; and entering a DRX on mode based at least in part on the DRX delay. establishing a discontinuous reception, DRX, configuration comprising a first DRX on duration and a first DRX periodicity; receiving a DRX update indication on a broadcast channel, wherein the DRX update indication comprises a UE-specific indication whether a DRX on period is delayed in addition to a delay duration; identifying a DRX delay based at least in part on the DRX update indication; and entering a DRX on mode based at least in part on the DRX delay.
Method for producing a cage of a roller bearing, wherein the cage comprises a base body with a plurality of pockets for receiving of rolling elements, wherein the method comprises the following steps: a) Definition of a basis geometry of the cage, wherein the basis geometry comprises a radial outer and/or inner surface for contacting or facing a bearing ring and a plurality of surfaces of the pockets for contacting the rolling elements, the method being characterized by the following steps: b) Definition of at least a part of the radial outer and/or inner surfaces (6, 7) as being unalterable surfaces; c) Calculation of the stress distribution in the cage when applying a defined force by means of a mathematical model; d) Detection of volume sections of the cage in which the stress is below a defined threshold; e) Removal of at least a part of the volume sections defined according to above step d) from the basis geometry, taking into account the unalterable surfaces (6, 7) according to step b) and preferably at least a part of the surfaces of the pockets which are unalterable surfaces; wherein the steps d) to e) are repeated until at least one void is created in the basis geometry of the cage, f) Definition of the cage geometry with the removed volume sections; g) Manufacturing of the cage according to the geometry as defined according to step f) by means of a 3-D-printing process. a) Definition of a basis geometry of the cage, wherein the basis geometry comprises a radial outer and/or inner surface for contacting or facing a bearing ring and a plurality of surfaces of the pockets for contacting the rolling elements, the method being characterized by the following steps: b) Definition of at least a part of the radial outer and/or inner surfaces (6, 7) as being unalterable surfaces; c) Calculation of the stress distribution in the cage when applying a defined force by means of a mathematical model; d) Detection of volume sections of the cage in which the stress is below a defined threshold; e) Removal of at least a part of the volume sections defined according to above step d) from the basis geometry, taking into account the unalterable surfaces (6, 7) according to step b) and preferably at least a part of the surfaces of the pockets which are unalterable surfaces; wherein the steps d) to e) are repeated until at least one void is created in the basis geometry of the cage, f) Definition of the cage geometry with the removed volume sections; g) Manufacturing of the cage according to the geometry as defined according to step f) by means of a 3-D-printing process.
A method for preparing a reduced coenzyme Q10 powder, wherein the method comprising the steps as follows: adding an oxidized coenzyme Q10 into an organic solvent, heating to 50 °C∼ 60°C of temperature, and adding a reductant for reaction; wherein the reductant is selected from one or more of hyposulphurous acid or salt thereof, ascorbic acid or salt thereof, carbodithioic acid or salt thereof, or reductase; the organic solvent is ketones, or hydrophobic alkanes; and removing the organic solvent after finishing the reaction to obtain a molten and oily reduced coenzyme Q10 liquid; and then heating the molten and oily reduced coenzyme Q10 liquid to 50°Cof temperature, spraying by a centrifugal sprayer, to form particles in cold air after spraying, to obtain a white reduced coenzyme Q10 powder. adding an oxidized coenzyme Q10 into an organic solvent, heating to 50 °C∼ 60°C of temperature, and adding a reductant for reaction; wherein the reductant is selected from one or more of hyposulphurous acid or salt thereof, ascorbic acid or salt thereof, carbodithioic acid or salt thereof, or reductase; the organic solvent is ketones, or hydrophobic alkanes; and removing the organic solvent after finishing the reaction to obtain a molten and oily reduced coenzyme Q10 liquid; and then heating the molten and oily reduced coenzyme Q10 liquid to 50°Cof temperature, spraying by a centrifugal sprayer, to form particles in cold air after spraying, to obtain a white reduced coenzyme Q10 powder.
An obstacle removing and energy absorbing device, comprising an obstacle removing beam and a bumper cross-beam which are oppositely arranged, an energy absorbing tube assembly with an energy absorbing tube is fixedly connected between the obstacle removing beam and the bumper cross-beam, a mounting base is fixedly connected with one end of the energy absorbing tube, while a crushing support is threaded onto the other end of the energy absorbing tube, the crushing support is provided with a variable-diameter through-hole, a crushing convex portion is provided in the variable-diameter through-hole, a concave portion matched with the crushing convex portion is arranged at an end portion where the energy absorbing tube is penetrated into the crushing support, the mounting base is fixedly connected with the obstacle removing beam, and the crushing support is fixedly connected with the bumper cross-beam.
Device for closing the sliding door of a sliding door arrangement, comprising a device housing with a first cable pulley battery rotatably mounted and stationarily arranged therein and a second cable pulley battery rotatably mounted in a cable pulley housing, wherein the cable pulley housing is displaceably guided in the device housing relative to the first cable pulley battery, further comprising a tension spring which is fastened on the one hand to the device housing and on the other hand to the cable pulley housing, and further comprising a traction cable which is guided in a looping manner around the rollers of the two cable pulley batteries (25, 43), characterised in that the traction cable is connected at the first end to the cable pulley housing and is connectable at the other end directly or indirectly to the guide rail, and in that a pulley is installed on the device as a rotation damper for reducing the travelling speed of the sliding door during the travel of the sliding door along the travel path, which pulley projects beyond the device housing and can be brought into frictional connection with the guide rail.
A method for avoiding receiver interference in systems wherein an analog-to-digital converter, ADC, sample clock is routed between separate radio frequency, RF, and baseband integrated circuits, ICs, and wherein the method comprises: determining a frequency of one or more undesired signals that potentially interfere with a first receiver, wherein: the one or more undesired signals are generated, at least in part, by a second receiver, a co-located transmitter, or the ADC sample clock; the circuitry comprises a second receiver, a transmitter, or both; selecting a desired sampling frequency such that at least one of the one or more undesired signals does not interfere with the first receiver; and setting the sampling frequency to the desired sampling frequency. determining a frequency of one or more undesired signals that potentially interfere with a first receiver, wherein: the one or more undesired signals are generated, at least in part, by a second receiver, a co-located transmitter, or the ADC sample clock; the circuitry comprises a second receiver, a transmitter, or both; the one or more undesired signals are generated, at least in part, by a second receiver, a co-located transmitter, or the ADC sample clock; the circuitry comprises a second receiver, a transmitter, or both; selecting a desired sampling frequency such that at least one of the one or more undesired signals does not interfere with the first receiver; and setting the sampling frequency to the desired sampling frequency.
A flexible packaging material, comprising: a flexible substrate comprising a first surface; an electrophotographic ink composition printed on the first surface of the flexible substrate, the printed electrophotographic ink composition comprising a polymer resin comprising a copolymer of an alkylene monomer and a monomer selected from acrylic acid and methacrylic acid; a base material comprising one or more of a polyethylene, a bi-axially oriented polypropylene (BOPP), a polyethylene terephthalate, a paper and/or a metallic film; and a thermally activatable laminating layer disposed between and bonded to the base material and to the first surface of the flexible substrate printed with the electrophotographic ink composition; wherein the thermally activatable laminating layer comprises a thermoplastic polymer resin. a flexible substrate comprising a first surface; an electrophotographic ink composition printed on the first surface of the flexible substrate, the printed electrophotographic ink composition comprising a polymer resin comprising a copolymer of an alkylene monomer and a monomer selected from acrylic acid and methacrylic acid; a base material comprising one or more of a polyethylene, a bi-axially oriented polypropylene (BOPP), a polyethylene terephthalate, a paper and/or a metallic film; and a thermally activatable laminating layer disposed between and bonded to the base material and to the first surface of the flexible substrate printed with the electrophotographic ink composition; wherein the thermally activatable laminating layer comprises a thermoplastic polymer resin.
A method comprising: receiving allocation input identifying virtual computing resources to be attached to a computing session, the virtual computing resources including a first cluster of at least one virtual machine that operates on a first hardware-type and a second cluster of at least one virtual machine that executes on a second hardware-type, wherein the second hardware-type includes at least one hardware computing resource not present in the first hardware-type, and the second hardware-type has high-computing speed performance capabilities with regard to certain computing operations as compared to the same certain computing operations when performed by the first hardware-type; allocating virtual computing resources within a virtual computing environment to establish a computing session according to the allocation input and establishing secure connectivity between the allocated computing resources; initiating, within the first cluster, execution of a program that offloads at least one computing task to the second cluster to leverage a performance enhancing capability of the second hardware-type with regard to the certain computing operations; and upon completion of program execution, deallocating virtual machines of at least the second cluster. receiving allocation input identifying virtual computing resources to be attached to a computing session, the virtual computing resources including a first cluster of at least one virtual machine that operates on a first hardware-type and a second cluster of at least one virtual machine that executes on a second hardware-type, wherein the second hardware-type includes at least one hardware computing resource not present in the first hardware-type, and the second hardware-type has high-computing speed performance capabilities with regard to certain computing operations as compared to the same certain computing operations when performed by the first hardware-type; allocating virtual computing resources within a virtual computing environment to establish a computing session according to the allocation input and establishing secure connectivity between the allocated computing resources; initiating, within the first cluster, execution of a program that offloads at least one computing task to the second cluster to leverage a performance enhancing capability of the second hardware-type with regard to the certain computing operations; and upon completion of program execution, deallocating virtual machines of at least the second cluster.
A method for an authentification service device, ASD, to authenticate request messages, comprising: (a) negotiating by said authentification service device, ASD, key information with a User Equipment, UE, and allocating by said authentification service device, ASD, an authentication transaction identifier, ATI, and an authentication random number, ARN, corresponding to the key information to the user equipment, UE; (b) receiving by said authentification service device, ASD, an association request from an Application Server, AS,, wherein the association request carries the authentication transaction identifier, ATI, and the authentication random number, ARN; (c) verifying by said authentification service device, ASD, the authentication random number, ARN, carried in the received association request according to the authentication transaction identifier, ATI, carried in the received association request; and (d) searching by said authentification service device, ASD, for the key information corresponding to the authentication transaction identifier, ATI, carried in the received association request after the verification succeeds, and returning an association response to the application server, AS, in response to the received association request, wherein the returned association response carries an authentication key generated according to the found key information. (a) negotiating by said authentification service device, ASD, key information with a User Equipment, UE, and allocating by said authentification service device, ASD, an authentication transaction identifier, ATI, and an authentication random number, ARN, corresponding to the key information to the user equipment, UE; (b) receiving by said authentification service device, ASD, an association request from an Application Server, AS,, wherein the association request carries the authentication transaction identifier, ATI, and the authentication random number, ARN; (c) verifying by said authentification service device, ASD, the authentication random number, ARN, carried in the received association request according to the authentication transaction identifier, ATI, carried in the received association request; and (d) searching by said authentification service device, ASD, for the key information corresponding to the authentication transaction identifier, ATI, carried in the received association request after the verification succeeds, and returning an association response to the application server, AS, in response to the received association request, wherein the returned association response carries an authentication key generated according to the found key information.
A docking apparatus for an electronic apparatus, comprising: a body that forms an exterior of the docking apparatus; a support portion (120; 420) rotatably coupled to the body; and an interface module coupled to the body, the interface module comprising an interface terminal electrically connectable to the electronic apparatus; wherein the support portion (120; 420) comprises a first magnetic substance (128; 428), and the body comprises a second magnetic substance (118; 418); wherein, when in a first state, the support portion (120; 420) is releasably secured in the first state due to attraction between the first magnetic substance (128; 428) and the second magnetic substance (118; 418), and, when in a second state, the support portion (120; 420) is releasably secured in the second state due to repulsion between the first magnetic substance (128; 428) and the second magnetic substance (118; 418); and wherein, when the support portion (120; 420) is in the first state, the interface terminal is in a state which can support the electronic apparatus, and, when the support portion (120; 420) is in the second state, the interface terminal is in a state which cannot support the electronic apparatus. a body that forms an exterior of the docking apparatus; a support portion (120; 420) rotatably coupled to the body; and an interface module coupled to the body, the interface module comprising an interface terminal electrically connectable to the electronic apparatus; wherein the support portion (120; 420) comprises a first magnetic substance (128; 428), and the body comprises a second magnetic substance (118; 418); wherein, when in a first state, the support portion (120; 420) is releasably secured in the first state due to attraction between the first magnetic substance (128; 428) and the second magnetic substance (118; 418), and, when in a second state, the support portion (120; 420) is releasably secured in the second state due to repulsion between the first magnetic substance (128; 428) and the second magnetic substance (118; 418); and wherein, when the support portion (120; 420) is in the first state, the interface terminal is in a state which can support the electronic apparatus, and, when the support portion (120; 420) is in the second state, the interface terminal is in a state which cannot support the electronic apparatus.
A coating composition comprising a bis-type silane compound represented by the following chemical formula 1, graphene or a conductive polymer, and a mixture solvent of an acidic or basic aqueous solution and an alcohol, wherein the ratio of Si-OH of chemical formula 1 is at least 50% of the total silane residue Si-R': wherein, R is selected from the group consisting of an alkyl group having 1 to 20 carbon atoms, a cycloalkyl group having 3 to 6 carbon atoms, an aryl group having 6 to 30 carbon atoms and a combination thereof; R' is each independently selected from the group consisting of a hydroxyl group, an alkoxy group having 1 to 20 carbon atoms, an alkyl group having 1 to 20 carbon atoms, a cycloalkyl group having 3 to 6 carbon atoms, an aryl group having 6 to 30 carbon atoms, an amino group, a vinyl group, an epoxy group, a thiol group and a combination thereof; and n is an integer of 1 to 20. R is selected from the group consisting of an alkyl group having 1 to 20 carbon atoms, a cycloalkyl group having 3 to 6 carbon atoms, an aryl group having 6 to 30 carbon atoms and a combination thereof; R' is each independently selected from the group consisting of a hydroxyl group, an alkoxy group having 1 to 20 carbon atoms, an alkyl group having 1 to 20 carbon atoms, a cycloalkyl group having 3 to 6 carbon atoms, an aryl group having 6 to 30 carbon atoms, an amino group, a vinyl group, an epoxy group, a thiol group and a combination thereof; and n is an integer of 1 to 20.