mhurhangee/ep-ind-claims huggingface dataset:
An appliance comprising: a load switch connected to a plurality of loads (190a, 190b, 190c,... 190n) and for controlling power applied to the plurality of loads (190a, 190b, 190c,... 190n); a Switching Mode Power Supply, SMPS, (140, 240), for outputting respective driving voltages appropriate for the plurality of loads (190a, 190b, 190c,... 190n) when the load switch is in an on-state; a sub microcomputer for receiving a permanent driving voltage and transmitting a signal for switching of the load switch to an on-state upon receiving a power on signal; and a main microcomputer for controlling operations of the plurality of loads (190a, 190b, 190c,... 190n) and for receiving a first driving voltage and transmitting a second signal for maintaining an on-state of the load switch to the load switch when the load switch is switched to the on-state, wherein the permanent driving voltage and the first driving voltage are provided from the SMPS (140, 240). a load switch connected to a plurality of loads (190a, 190b, 190c,... 190n) and for controlling power applied to the plurality of loads (190a, 190b, 190c,... 190n); a Switching Mode Power Supply, SMPS, (140, 240), for outputting respective driving voltages appropriate for the plurality of loads (190a, 190b, 190c,... 190n) when the load switch is in an on-state; a sub microcomputer for receiving a permanent driving voltage and transmitting a signal for switching of the load switch to an on-state upon receiving a power on signal; and a main microcomputer for controlling operations of the plurality of loads (190a, 190b, 190c,... 190n) and for receiving a first driving voltage and transmitting a second signal for maintaining an on-state of the load switch to the load switch when the load switch is switched to the on-state, wherein the permanent driving voltage and the first driving voltage are provided from the SMPS (140, 240).
A method for providing application data, the method comprising: receiving, at a network node, at least one application identifier, App-ID, associated with a plurality of user equipments, UEs,; requesting, by the network node, to receive notifications of updates to application data associated with the at least one App-ID; determining a location of each of the plurality of UEs upon receiving a notification of updated application data associated with the at least one App-ID; requesting, by the network node, a broadcast entity to perform a broadcast of the updated application data associated with the at least one App-ID, wherein the network node is configured to delay scheduling the broadcast until a predefined number of UEs among the plurality of UEs are within a geographical area that allows the broadcast to be used for delivering the updated application data, wherein said predefined number is greater than one; and sending, by the network node to the plurality of UEs, configuration data for receiving application data from the broadcast entity. receiving, at a network node, at least one application identifier, App-ID, associated with a plurality of user equipments, UEs,; requesting, by the network node, to receive notifications of updates to application data associated with the at least one App-ID; determining a location of each of the plurality of UEs upon receiving a notification of updated application data associated with the at least one App-ID; requesting, by the network node, a broadcast entity to perform a broadcast of the updated application data associated with the at least one App-ID, wherein the network node is configured to delay scheduling the broadcast until a predefined number of UEs among the plurality of UEs are within a geographical area that allows the broadcast to be used for delivering the updated application data, wherein said predefined number is greater than one; and sending, by the network node to the plurality of UEs, configuration data for receiving application data from the broadcast entity.
Dental preparation instrument comprising a shaft part and a working part connected thereto having a cutting structure that is designed and adapted for the preparation of a tooth, the working part having the shape of a cylinder or cone comprising a free front end region on the front of which a non-cutting surface region is provided, to which a cutting surface region of the working part that extends up to the shaft part is connected, the non-cutting surface region having, at least in plan view, the shape of a centric circular surface, the diameter of which corresponds to a fraction of the diameter of the working part at the transition point thereof into the front end region, and the non-cutting surface region and the cutting surface region steplessly transitioning into one another, characterised in that the free front end region of the working part is a spherically rounded tip in the shape of what is referred to as a "classical torpedo" and the non-cutting centric surface region has a spherical cap-like shape, or in that the free front end region of the working part is a planar end surface having a rounded outer edge and the non-cutting centric surface region has a circular surface-like shape.
A method of operating a memory device, comprising: sending an address of a defective memory block (210 2) of a sequence of memory blocks of the memory device to an external device; receiving an external address from the external device that addresses a non-defective memory block (210 3) of the sequence of memory blocks of the memory device in place of the defective memory block (210 2) of the sequence of memory blocks such that the non-defective memory block (210 3) replaces the defective memory block (210 2); applying a voltage-delay correction to the non-defective memory block (210 3) that replaces the defective memory block (210 2) based on the actual location of the non-defective memory block; wherein the non-defective memory block (210 3) is a proximate non-defective memory block following the defective memory block (210 2) in the sequence of memory blocks that is available to replace the defective memory block (210 2). sending an address of a defective memory block (210 2) of a sequence of memory blocks of the memory device to an external device; receiving an external address from the external device that addresses a non-defective memory block (210 3) of the sequence of memory blocks of the memory device in place of the defective memory block (210 2) of the sequence of memory blocks such that the non-defective memory block (210 3) replaces the defective memory block (210 2); applying a voltage-delay correction to the non-defective memory block (210 3) that replaces the defective memory block (210 2) based on the actual location of the non-defective memory block; wherein the non-defective memory block (210 3) is a proximate non-defective memory block following the defective memory block (210 2) in the sequence of memory blocks that is available to replace the defective memory block (210 2).
Circuit for reducing counter-intermodulation in a modulated signal caused by an oscillator frequency and harmonics of a baseband signal, said circuit comprising: a first and a second baseband section arranged for generating a first and a second version of a baseband signal, said second version being phase shifted with respect to said first version, three signal paths comprising mixing means for multiplication of said first and second version of said baseband signal with a local oscillator signal, whereby the local oscillator signal in one signal path is a phase-rotated version of the local oscillator signal in the other two signal paths, so that three upconverted signals with rotated phase with respect to each other are obtained, and arranged for applying a scaling with a scaling factor depending on the rotated phases, combination means arranged for combining said three upconverted signals. a first and a second baseband section arranged for generating a first and a second version of a baseband signal, said second version being phase shifted with respect to said first version, three signal paths comprising mixing means for multiplication of said first and second version of said baseband signal with a local oscillator signal, whereby the local oscillator signal in one signal path is a phase-rotated version of the local oscillator signal in the other two signal paths, so that three upconverted signals with rotated phase with respect to each other are obtained, and arranged for applying a scaling with a scaling factor depending on the rotated phases, combination means arranged for combining said three upconverted signals.
A method for prolonging lifetime of at least one electron beam source, the method comprising the steps of: providing the at least one electron beam source emitting an electron beam, wherein the electron beam source comprises a cathode, an anode, and a grid between the cathode and anode; setting an electron beam current, a cathode heating power, a grid potential Ug and a cathode potential Uc to predetermined start values; reducing the cathode heating power with a predetermined value and decreasing a Uc-Ug potential difference for maintaining the predetermined electron beam current; detecting an X-ray signal emanating from the electron beam source with at least one X-ray detector; repeating said reducing and detecting steps until the detected X-ray signal is above a predetermined value; and increasing the cathode heating power by a predetermined safety value from a threshold heating power value which resulted in x-ray signals, emanating from the electron beam source, above the predetermined value. providing the at least one electron beam source emitting an electron beam, wherein the electron beam source comprises a cathode, an anode, and a grid between the cathode and anode; setting an electron beam current, a cathode heating power, a grid potential Ug and a cathode potential Uc to predetermined start values; reducing the cathode heating power with a predetermined value and decreasing a Uc-Ug potential difference for maintaining the predetermined electron beam current; detecting an X-ray signal emanating from the electron beam source with at least one X-ray detector; repeating said reducing and detecting steps until the detected X-ray signal is above a predetermined value; and increasing the cathode heating power by a predetermined safety value from a threshold heating power value which resulted in x-ray signals, emanating from the electron beam source, above the predetermined value.
Packaging box and detachable lid structure integrated into it, which packaging box is formed from a base surface, folding surfaces of the long sides of the box each being stiffened by a cut-to-shape side functioning as a support surface for the detachable lid structure and vertical surfaces of the short sides of the box each being folded into a vertical attitude from a crease between the vertical surface and the base surface and further folded onto the said support surfaces into a horizontal stacking plane from a crease between the vertical surface and stacking plane, whereby a shaped tongue is formed on the outer ends of the stacking planes, and characterized in that a corner of the lid structure comprises a flattening, such that said corner of the lid structure is guided to slide under the shaped tongue whereby the shaped tongue together with the said support surface function as a locking means of said corner of the lid structure in such a way that the flattening of the corner is pressed between the tongue and the said support surface, locking it in place by means of friction.
Process for the hydrogenation of unsaturated fatty acids to produce saturated fatty acids, said process comprising hydrogenating the unsaturated fatty acid in the presence of hydrogen and a supported nickel catalyst, said supported nickel catalyst comprising an oxidic support, 5 to 80 wt. % of nickel, calculated as metallic nickel on the weight of the catalyst, and 0.1 to 10 wt. % of a manganese promoter, calculated as MnO 2 on the weight of the catalyst.
A positioning fixture, suitable for positioning a functional module on a circuit board, the circuit board comprising an electronic component and a first screw hole, wherein the electronic component is disposed adjacent to the first screw hole, and the positioning fixture being characterized in that it comprises: a shielding member, disposed corresponding to the electronic component and comprising a sliding part, a guiding part, and a shielding part, wherein the sliding part is slidably connected to the functional module and extends from one end of the guiding part along a first direction, the shielding part extends from another end of the guiding part along a second direction opposite to the first direction and corresponds to the first screw hole, and the sliding part comprises a guiding groove; and a driving member, movably disposed on the functional module corresponding to the shielding member and comprising a base part, a driving part and a pillar part, wherein the driving part contacts the guiding part, and the pillar part protrudes from the base part and is adapted to pass through the guiding groove; when the functional module is positioned on the circuit board, the base part of the driving member is pushed by the electronic component, and the guiding part is pushed by the driving part, so that the shielding member slides along the second direction and the shielding part shields the first screw hole. a shielding member, disposed corresponding to the electronic component and comprising a sliding part, a guiding part, and a shielding part, wherein the sliding part is slidably connected to the functional module and extends from one end of the guiding part along a first direction, the shielding part extends from another end of the guiding part along a second direction opposite to the first direction and corresponds to the first screw hole, and the sliding part comprises a guiding groove; and a driving member, movably disposed on the functional module corresponding to the shielding member and comprising a base part, a driving part and a pillar part, wherein the driving part contacts the guiding part, and the pillar part protrudes from the base part and is adapted to pass through the guiding groove; when the functional module is positioned on the circuit board, the base part of the driving member is pushed by the electronic component, and the guiding part is pushed by the driving part, so that the shielding member slides along the second direction and the shielding part shields the first screw hole.
A method for diverting a portion of a flowing sample, the method comprising: creating a first fluid path between a low pressure pump and a waste container; flowing a sample containing analytes at a low pressure; creating a second fluid path between a high pressure pump system and a detector device; diverting a portion of the flowing sample containing a sample plug along the second fluid path to a sample volume; and pushing the portion of the flowing sample containing the sample plug at a high pressure toward the detector device; characterized in that the method comprises flowing the sample at a low pressure through an absorbance detector along the first fluid path; performing a real-time integration of the absorbance over time; determining a time interval from a first time point t 1 to a second time point t 2, over which the integrated absorbance reaches a value corresponding to a predetermined quantity of mass; and forming the sample plug based on the time interval. creating a first fluid path between a low pressure pump and a waste container; flowing a sample containing analytes at a low pressure; creating a second fluid path between a high pressure pump system and a detector device; diverting a portion of the flowing sample containing a sample plug along the second fluid path to a sample volume; and pushing the portion of the flowing sample containing the sample plug at a high pressure toward the detector device; characterized in that the method comprises flowing the sample at a low pressure through an absorbance detector along the first fluid path; performing a real-time integration of the absorbance over time; determining a time interval from a first time point t 1 to a second time point t 2, over which the integrated absorbance reaches a value corresponding to a predetermined quantity of mass; and forming the sample plug based on the time interval.
A method for distributing data to clients (402, 505) in an iterative data processing, comprising: establishing a multicast session with a multiplicity of clients (402, 505) in a radio communication system, wherein the multicast session is provided by means of one or more data replication components for replicating multicast data; and for each of multiple iterations of the iterative data processing, determining, by a server (401, 501) of the radio communication system, a subset of the multiplicity of clients (402, 505) for the iteration; determining data to be distributed to the determined subset of clients (402, 505); notifying the one or more data replication components about the determined subset; and providing, by the server (401, 501), the determined data to the one or more data replication components and controlling the one or more data replication components to replicate the data according to the determined subset and to transmit the determined data to each client (402, 505) of the determined subset within the multicast session. establishing a multicast session with a multiplicity of clients (402, 505) in a radio communication system, wherein the multicast session is provided by means of one or more data replication components for replicating multicast data; and for each of multiple iterations of the iterative data processing, determining, by a server (401, 501) of the radio communication system, a subset of the multiplicity of clients (402, 505) for the iteration; determining data to be distributed to the determined subset of clients (402, 505); notifying the one or more data replication components about the determined subset; and providing, by the server (401, 501), the determined data to the one or more data replication components and controlling the one or more data replication components to replicate the data according to the determined subset and to transmit the determined data to each client (402, 505) of the determined subset within the multicast session. determining, by a server (401, 501) of the radio communication system, a subset of the multiplicity of clients (402, 505) for the iteration; determining data to be distributed to the determined subset of clients (402, 505); notifying the one or more data replication components about the determined subset; and providing, by the server (401, 501), the determined data to the one or more data replication components and controlling the one or more data replication components to replicate the data according to the determined subset and to transmit the determined data to each client (402, 505) of the determined subset within the multicast session.
A variable valve operating apparatus, comprising: a drive camshaft that is rotationally driven by a rotational force of a crankshaft; a driven cam lobe that is concentric with the drive camshaft, and is rotatably supported by the drive camshaft; a guide member (36, 64) that has a raceway surface (36a1, 64a) formed so as to surround the drive camshaft; a link mechanism that is connected to each of the drive camshaft and the driven cam lobe, has a contact member (30, 32) which is in contact with the raceway surface (36a1, 64a), and changes a rotation angle of the driven cam lobe with respect to the drive camshaft in association with a positional change of the contact member (30, 32) with respect to a center of rotation of the drive camshaft; contact maintaining means (34, 38) that maintains contact between the contact member (30, 32) that revolves around the drive camshaft and the raceway surface (36a1, 64a), while the drive camshaft makes one rotation; and an actuator (42, 62) that moves the raceway surface (36a1, 64a) in a plane direction orthogonal to an axial line of the drive camshaft. a drive camshaft that is rotationally driven by a rotational force of a crankshaft; a driven cam lobe that is concentric with the drive camshaft, and is rotatably supported by the drive camshaft; a guide member (36, 64) that has a raceway surface (36a1, 64a) formed so as to surround the drive camshaft; a link mechanism that is connected to each of the drive camshaft and the driven cam lobe, has a contact member (30, 32) which is in contact with the raceway surface (36a1, 64a), and changes a rotation angle of the driven cam lobe with respect to the drive camshaft in association with a positional change of the contact member (30, 32) with respect to a center of rotation of the drive camshaft; contact maintaining means (34, 38) that maintains contact between the contact member (30, 32) that revolves around the drive camshaft and the raceway surface (36a1, 64a), while the drive camshaft makes one rotation; and an actuator (42, 62) that moves the raceway surface (36a1, 64a) in a plane direction orthogonal to an axial line of the drive camshaft.
A method for limiting a size of Long Term Evolution, LTE, Positioning Protocol, LPP messages in a location session, the method comprising: sending, from a first device (110, 102, 118) to a second device (102, 110,118), a first LPP message including an indication that the first device is capable of receiving segmented LPP messages; and after the sending of the first LPP message, receiving, at the first device from the second device, a plurality of LPP message segments comprising one or more non-final LPP message segments and a final LPP message segment, wherein each non-final LPP message segment of the one or more non-final LPP message segments includes a segmentation information field that is set to a first value to indicate that respective non-final LPP message segment is non-final and that one or more additional LLP message segments will be transferred; and the final LPP message segment includes the segmentation information field that is set to a second value to indicate that the final LPP message segment is final and wherein each LPP message segment includes an end transaction field that is set to true to indicate the end of a LPP transaction that includes the plurality of the LPP message segments, and wherein the respective segmentation information field is set independently of the end transaction field. after the sending of the first LPP message, receiving, at the first device from the second device, a plurality of LPP message segments comprising one or more non-final LPP message segments and a final LPP message segment, wherein each non-final LPP message segment of the one or more non-final LPP message segments includes a segmentation information field that is set to a first value to indicate that respective non-final LPP message segment is non-final and that one or more additional LLP message segments will be transferred; and the final LPP message segment includes the segmentation information field that is set to a second value to indicate that the final LPP message segment is final and wherein each LPP message segment includes an end transaction field that is set to true to indicate the end of a LPP transaction that includes the plurality of the LPP message segments, and wherein the respective segmentation information field is set independently of the end transaction field.