mhurhangee/ep-ind-claims huggingface dataset:
A method performed by a network node of managing online charging of sponsored data connectivity, comprising: receiving a user request for service related to the sponsored data connectivity; estimating a number of users that are expected to use said service; acquiring, from an Online Charging System of a sponsor of the sponsored data connectivity, the Online Charging System authorizing access to the sponsored data connectivity, authorisation of total quota for the estimated number of users that are expected to use said service; and granting the user of said user request access to the requested service with quota received with the authorisation from said Online Charging System, said quota being valid for a specified time period, and further granting (s104b) any further user requesting (S101b) said service access to the requested service with quota received with the authorisation until the total quota authorised by the Online Charging System for the estimated number of users has been apportioned. receiving a user request for service related to the sponsored data connectivity; estimating a number of users that are expected to use said service; acquiring, from an Online Charging System of a sponsor of the sponsored data connectivity, the Online Charging System authorizing access to the sponsored data connectivity, authorisation of total quota for the estimated number of users that are expected to use said service; and granting the user of said user request access to the requested service with quota received with the authorisation from said Online Charging System, said quota being valid for a specified time period, and further granting (s104b) any further user requesting (S101b) said service access to the requested service with quota received with the authorisation until the total quota authorised by the Online Charging System for the estimated number of users has been apportioned.
Operating method for an electric drive that has an electric machine, a semiconductor switching device feeding the electric machine, and a control device controlling the semiconductor switching device, wherein the control device - continuously acquires an operating parameter of the electric drive through measurement or derives said operating parameter from variables (n, T, T') acquired through measurement, - continuously checks whether the operating parameter, starting from values below a trigger value, reaches the trigger value, - then, if the operating parameter reaches the trigger value, sets a maximum permissible relative maximum current (ImaxR) equal to a current being fed by the semiconductor switching device into the electric machine at this time, - ascertains, for values of the operating parameter between the trigger value and a limit value that is above the trigger value, a current limit value profile that, from the trigger value to the limit value of the operating parameter, falls from the relative maximum current (ImaxR) strictly monotonously to a minimum current (Imin), and - during further operation of the electric drive, limits the current fed by the semiconductor switching device into the electric machine in accordance with the ascertained current limit value profile for values of the operating parameter between the trigger value and the limit value. - continuously acquires an operating parameter of the electric drive through measurement or derives said operating parameter from variables (n, T, T') acquired through measurement, - continuously checks whether the operating parameter, starting from values below a trigger value, reaches the trigger value, - then, if the operating parameter reaches the trigger value, sets a maximum permissible relative maximum current (ImaxR) equal to a current being fed by the semiconductor switching device into the electric machine at this time, - ascertains, for values of the operating parameter between the trigger value and a limit value that is above the trigger value, a current limit value profile that, from the trigger value to the limit value of the operating parameter, falls from the relative maximum current (ImaxR) strictly monotonously to a minimum current (Imin), and - during further operation of the electric drive, limits the current fed by the semiconductor switching device into the electric machine in accordance with the ascertained current limit value profile for values of the operating parameter between the trigger value and the limit value.
A DPP-4 inhibitor of formula wherein R1 denotes (4-methyl-quinazolin-2-yl)methyl, and R2 denotes 3- -amino-piperidin-1-yl, or its pharmaceutically acceptable salt; for use in the treatment and/or prevention of non alcoholic fatty liver disease (NAFLD).
A dental mill blank having a shape allowing the dental mill blank to be attached or fixed to a machining device, the dental mill blank comprising a porous zirconia material, the porous zirconia material comprising the oxides ∘ Zr oxide calculated as ZrO2: from 80 to 97 wt.-%, ∘ Al oxide calculated as Al2O3: from 0 to 0.15 wt.-%, ∘ Y oxide calculated as Y2O3: from 1 to 10 wt.-%, ∘ Bi oxide calculated as Bi2O3: from 0.01 to 0.20 wt.-%, ∘ Tb oxide calculated as Tb2O3: from 0.01 to 0.8 wt.-%, and optionally one or two of the following oxides: ∘ Er oxide calculated as Er2O3: from 0.01 to 3.0 wt.-%, ∘ Mn oxide calculated as MnO2: from 0.0001 to 0.08 wt.-%, the porous zirconia material not comprising Fe oxide calculated as Fe2O3 in an amount of more than 0.01 wt.-%, wt.-% with respect to the weight of the porous zirconia material. ∘ Zr oxide calculated as ZrO2: from 80 to 97 wt.-%, ∘ Al oxide calculated as Al2O3: from 0 to 0.15 wt.-%, ∘ Y oxide calculated as Y2O3: from 1 to 10 wt.-%, ∘ Bi oxide calculated as Bi2O3: from 0.01 to 0.20 wt.-%, ∘ Tb oxide calculated as Tb2O3: from 0.01 to 0.8 wt.-%, ∘ Er oxide calculated as Er2O3: from 0.01 to 3.0 wt.-%, ∘ Mn oxide calculated as MnO2: from 0.0001 to 0.08 wt.-%,
A domestic product for treatment of plants, specifically plants with problems of insects, fungi and acarids, whether independently or combined, comprising a combination of deltamethrin, abamectin and a fungicide in the form of an aqueous microemulsion, emulsion, suspoemulsion or suspension of microcapsules, characterized in that it comprises Deltamethrin in a proportion of between 0.00025 and 0.01% by weight, Abamectin in a proportion of between 0.00025 and 0.01% by weight, and Tebuconazole as the fungicide in a proportion of between 0.005 and 0.05% by weight.
Method for manufacturing a panel, comprising a) storing cellulose fibers, at least one binder and wear resistant particles in different tanks, b) bringing the cellulose fibers, said at least one binder and the wear resistant particles onto a substrate, c) applying pressure and temperature in a pressing station to cure said at least one binder for forming a surface layer on the substrate. a) storing cellulose fibers, at least one binder and wear resistant particles in different tanks, b) bringing the cellulose fibers, said at least one binder and the wear resistant particles onto a substrate, c) applying pressure and temperature in a pressing station to cure said at least one binder for forming a surface layer on the substrate.
Camera system for inspecting pipes and/or ducts, having: a lens for imaging an object onto an image-capturing unit, a first illuminating means and a second illuminating means, which are each arranged radially around the optical axis of the lens and are designed to emit light in an emission direction, which runs substantially parallel to the optical axis of the lens, in order to illuminate the object, characterised in that the first illuminating means is arranged in front of the second illuminating means in the emission direction, and a first reflector (18, 28) is arranged between the first illuminating means and the second illuminating means, which first reflector is designed to reflect light incident from the second illuminating means into the image angle range of the lens. a lens for imaging an object onto an image-capturing unit, a first illuminating means and a second illuminating means, which are each arranged radially around the optical axis of the lens and are designed to emit light in an emission direction, which runs substantially parallel to the optical axis of the lens, in order to illuminate the object, characterised in that the first illuminating means is arranged in front of the second illuminating means in the emission direction, and a first reflector (18, 28) is arranged between the first illuminating means and the second illuminating means, which first reflector is designed to reflect light incident from the second illuminating means into the image angle range of the lens.
An illumination system, comprising: a light source, a reflective optical element, a polarization conversion element disposed between the light source and the reflective optical element, a beam splitting element disposed between the light source and the polarization conversion element, and a homogenizing element disposed on a transmission path of a light beam reflected by the beam splitting element, characterized in that: the light source provides a first light beam having a first polarization state and a second light beam having a second polarization state; the reflective optical element is disposed on a transmission path of the first light beam and the second light beam; the polarization conversion element is configured to convert the first light beam having the first polarization state to the first light beam having the second polarization state, and convert the second light beam having the second polarization state to the second light beam having the first polarization state; and the beam splitting element comprises at least one first region and at least one second region, the at least one first region is configured to allow a light beam having the first polarization state to pass through and reflect a light beam having the second polarization state, and the at least one second region is configured to allow the light beam having the second polarization state to pass through and reflect the light beam having the first polarization state. the light source provides a first light beam having a first polarization state and a second light beam having a second polarization state; the reflective optical element is disposed on a transmission path of the first light beam and the second light beam; the polarization conversion element is configured to convert the first light beam having the first polarization state to the first light beam having the second polarization state, and convert the second light beam having the second polarization state to the second light beam having the first polarization state; and the beam splitting element comprises at least one first region and at least one second region, the at least one first region is configured to allow a light beam having the first polarization state to pass through and reflect a light beam having the second polarization state, and the at least one second region is configured to allow the light beam having the second polarization state to pass through and reflect the light beam having the first polarization state.
An electronic device, comprising: an antenna module configured to sense an electromagnetic, EM, signal caused by electromagnetic interference, EMI, generated from electronic components in an external electronic device; a communication module; a processor operatively connected to the antenna module and the communication module; and a memory storing instructions which, are configured to, when executed, cause the processor to: identify the external electronic device based on at least part of the EM signal sensed from the external electronic device via the antenna module; identify whether the identified external electronic device is registered in a designated control application; and in response to identifying the external electronic device being registered in the designated control application, display first information about control for the external electronic device on a display of the electronic device. an antenna module configured to sense an electromagnetic, EM, signal caused by electromagnetic interference, EMI, generated from electronic components in an external electronic device; a communication module; a processor operatively connected to the antenna module and the communication module; and a memory storing instructions which, are configured to, when executed, cause the processor to: identify the external electronic device based on at least part of the EM signal sensed from the external electronic device via the antenna module; identify whether the identified external electronic device is registered in a designated control application; and in response to identifying the external electronic device being registered in the designated control application, display first information about control for the external electronic device on a display of the electronic device. identify the external electronic device based on at least part of the EM signal sensed from the external electronic device via the antenna module; identify whether the identified external electronic device is registered in a designated control application; and in response to identifying the external electronic device being registered in the designated control application, display first information about control for the external electronic device on a display of the electronic device.
Handheld work apparatus with a motor unit and a handle unit, wherein the motor unit comprises a drive motor for driving a tool of the work apparatus, wherein the handle unit comprises a handle, wherein the motor unit and the handle unit are connected to each other via at least one antivibration element (11, 12, 13, 14), wherein a first antivibration element comprises a helical spring, wherein a first retaining element is attached at a first end of the helical spring, and wherein a second retaining element is attached at a second end of the helical spring, wherein the first retaining element is fixedly connected to the motor unit and the second retaining element is fixedly connected to the handle unit, wherein the retaining elements (21, 22) have end faces (31, 32) which are arranged in an interior space of the helical spring, characterized in that the end faces (31, 32) of the retaining elements (21, 22) have centring elements (35, 36) which can come into contact with each other and, in the process, centre the retaining elements (21, 22) with respect to each other, and in that the end faces (31, 32) of the retaining elements (21, 22) form a stop for the movement of the handle.
A method for determining to have intermediaries perform compression of a remote display protocol communicated between a client and a server, the method comprising: a) transmitting, by a first one of a client and a server to the other one of the client and the server via a first intermediary and a second intermediary, a communication identifying remote display protocol capabilities of the client; b) determining, by the other one of the client and the server from the communication forwarded via the first intermediary and the second intermediary, remote display protocol capabilities of the first one of the client and the server and one of the first intermediary or the second intermediary; c) transmitting, by the other one of the client and the server to the first one of the client and the server responsive to the determination, a second communication identifying that the client and server are not to perform compression on remote display protocol communications; d) compressing, by the first intermediary, data communicated by the server to the client via the remote display protocol and forwarding the compressed data to the second intermediary; and e) uncompressing, by the second intermediary, the compressed data and forwarding the uncompressed data to the client via the remote display protocol. a) transmitting, by a first one of a client and a server to the other one of the client and the server via a first intermediary and a second intermediary, a communication identifying remote display protocol capabilities of the client; b) determining, by the other one of the client and the server from the communication forwarded via the first intermediary and the second intermediary, remote display protocol capabilities of the first one of the client and the server and one of the first intermediary or the second intermediary; c) transmitting, by the other one of the client and the server to the first one of the client and the server responsive to the determination, a second communication identifying that the client and server are not to perform compression on remote display protocol communications; d) compressing, by the first intermediary, data communicated by the server to the client via the remote display protocol and forwarding the compressed data to the second intermediary; and e) uncompressing, by the second intermediary, the compressed data and forwarding the uncompressed data to the client via the remote display protocol.
Protective tube with an internal bearing tube for mounting a drive shaft of a hand-guided working implement, wherein the drive shaft and the bearing tube extend in the longitudinal direction of the protective tube and the bearing tube has a central bearing sleeve and the bearing sleeve supports elastic supporting elements (21, 22, 23, 24) and the bearing sleeve is supported against the internal contour of the protective tube by the elastic supporting elements (21, 22, 23, 24) and at least one supporting element (21, 22, 23, 24) of the bearing sleeve bears against the internal contour of the tube cross-section with a contact surface (37, 39) and the supporting element (21, 22, 23, 24) comprises a supporting rib (121, 122, 123, 124), which extends along the bearing sleeve and has an extension designed as a lug with the contact surface (37, 39) and the contact surface (37, 39) has a distance (r) from the centre of the tube cross-section, characterised in that • the protective tube has a tube cross-section deviating from a circular form with an internal contour and a centre, • the internal contour of the tube cross-section has at least one first circumferential section (51, 52, 53, 54) with a minimum distance (r min) from the centre of the tube cross-section and at least one second circumferential section (61, 62, 63, 64) with a maximum distance (r max) from the centre of the tube cross-section, • and the distance (r) of the contact surface (37, 39) from the centre is greater than the minimum distance (r min) of the first circumferential section (51, 52, 53, 54) from the centre and less than or equal to the maximum distance (r max) of the second circumferential section (61, 62, 63, 64) from the centre. • the protective tube has a tube cross-section deviating from a circular form with an internal contour and a centre, • the internal contour of the tube cross-section has at least one first circumferential section (51, 52, 53, 54) with a minimum distance (r min) from the centre of the tube cross-section and at least one second circumferential section (61, 62, 63, 64) with a maximum distance (r max) from the centre of the tube cross-section, • and the distance (r) of the contact surface (37, 39) from the centre is greater than the minimum distance (r min) of the first circumferential section (51, 52, 53, 54) from the centre and less than or equal to the maximum distance (r max) of the second circumferential section (61, 62, 63, 64) from the centre.
A food cooking device including a plurality of heating means (301a-301d) for heating a respective food item and control means arranged to individually control energy supply to each of the heating means (301a-301d), wherein the food cooking device includes a microprocessor with downloading means arranged to download a set of food cooking process data, and in that the control means is arranged to control the energy supply to a plurality of the heating means in response to said downloaded set of food cooking process data, characterized in that the microprocessor includes searching means for searching among a plurality of sets of cooking process data and selecting means for selecting one of said plurality of sets of food cooking process data for downloading.
Hollow filter element for the replaceable installation into a filter device for filtering air, in particular of an internal combustion engine, in particular of a motor vehicle, wherein the hollow filter element comprises a filter material arranged around a cavity and wherein the filter material is held in a sealing manner at at least one end face by a planar bordering enclosing the cavity, characterised in that the bordering has at least one handle recess designed as an intrinsically rigid insertion part for handling the hollow filter element. characterised in that the bordering has at least one handle recess designed as an intrinsically rigid insertion part for handling the hollow filter element.
Master cylinder, in particular for a clutch, actuating or brake system of a vehicle, comprising a cylinder housing with a piston bore, a piston arranged in the piston bore and having an end side facing a cylinder chamber and at least one afterflow opening leading from a piston skirt surface through a piston wall to the cylinder chamber at a distance from the end side, said opening adjoining an afterflow space in a pressure equalization position of the piston so that in the pressure equalization position hydraulic medium can run on into the cylinder chamber in order to equalize the pressure, and an inner sealing element arranged between the housing and the piston in the area of the piston bore and limiting the cylinder chamber, characterized in that the sealing element is insertable into the cylinder housing from an outer opening (152, 30) thereof, that the cylinder housing has a bore (150, 180, 26) lying adjacent to the outer opening (152, 30) and reaching as far as a base of a receiving groove, the sealing element being insertable through said bore, that the bore (150, 180, 26) lying adjacent to the outer opening (152, 30) has at least one cross sectional surface corresponding to a cross sectional surface of the base of the groove, that an insert (160, 170, 190) fixing the sealing element in place is insertable into the cylinder housing, that the insert (160, 170, 190) forms a groove wall (65, 67) in the state inserted into the cylinder housing and that an additional groove wall (67, 65) not formed by the insert (160, 170, 190) is provided in the cylinder housing.
Method for the serial filling, with a gas, of a plurality of pressure cylinders which comprise a geometrical longitudinal axis and a filling nozzle centered thereon, the pressure cylinders being parallel to one another and being arranged on a conveyor belt so as to have their longitudinal axes aligned transversely to a transport direction and being moved by said conveyor belt in the transport direction, each pressure cylinder, upon reaching a filling position, being individually lifted, adjusted and moved in the direction of its longitudinal axis to a filling head by a manipulator, and pressed against said filling head such that a filling process can be carried out, and, after the filling process has been completed, the pressure cylinder being moved back, placed back on the conveyor belt and transported onward, characterized in that each pressure cylinder is moved horizontally to the filling head.