mhurhangee/ep-ind-claims huggingface dataset:
A computer-implemented method comprising: determining, by a digital component distribution system, to distribute, to a computing device and for display at the computing device, a digital component that depicts content related to a particular subject; determining, by the digital component distribution system and using a data processing model and contextual information for the computing device, to include a remind-me-later user interface control with the digital component; and in response to determining to include the remind-me-later user interface control, modifying the digital component to include the remind-me-later user interface control that, when interacted with by a user, causes the computing device to schedule a notification that reminds a user of the computing device of the subject of the digital component; and sending the digital component with the remind-me-later user interface control to the computing device. determining, by a digital component distribution system, to distribute, to a computing device and for display at the computing device, a digital component that depicts content related to a particular subject; determining, by the digital component distribution system and using a data processing model and contextual information for the computing device, to include a remind-me-later user interface control with the digital component; and in response to determining to include the remind-me-later user interface control, modifying the digital component to include the remind-me-later user interface control that, when interacted with by a user, causes the computing device to schedule a notification that reminds a user of the computing device of the subject of the digital component; and sending the digital component with the remind-me-later user interface control to the computing device.
A probe system for measuring an electrical field, comprising: - at least three sensing means arranged in accordance with at least three non-coplanar axes such that three electrical field components along said three non-coplanar axes can be sensed; each sensing means being adapted to sense an electric field component of an RF signal and to output an electric signal representative for an amplitude of the sensed electrical field component; - a processing circuit operationally connected to each sensing means, said processing circuit being configured for processing the obtained electric signals and for outputting a measurement result; - a measurement correction mechanism; characterized in that the measurement correction mechanism is configured for correcting the measurement result based on a frequency of said electrical field and an angular position of the at least three sensing means relative to said electrical field, said angular position being determined based on the at least three electric signals representative for the at least three detected amplitudes output by the at least three sensing means. - at least three sensing means arranged in accordance with at least three non-coplanar axes such that three electrical field components along said three non-coplanar axes can be sensed; each sensing means being adapted to sense an electric field component of an RF signal and to output an electric signal representative for an amplitude of the sensed electrical field component; - a processing circuit operationally connected to each sensing means, said processing circuit being configured for processing the obtained electric signals and for outputting a measurement result; - a measurement correction mechanism; characterized in that the measurement correction mechanism is configured for
A method for wireless network design, the method comprising: receiving a ray path analysis request for a target area for a wireless network design; configuring a first area corresponding to an analysis range of the target area, in consideration of a position of a first base station, BS, and a direction of a ray transmitted by the first BS, wherein the first area is an area in which a dominant signal of the ray transmitted by the first BS reaches, the dominant signal being identified on a first road based on a signal level of the ray transmitted by the first BS; configuring a second area along a layout of the first road running on a line extended from the first BS, within a range of the configured first area; performing analysis on a path of the ray transmitted by the first BS in the second area; and transmitting a result of the analysis. receiving a ray path analysis request for a target area for a wireless network design; configuring a first area corresponding to an analysis range of the target area, in consideration of a position of a first base station, BS, and a direction of a ray transmitted by the first BS, wherein the first area is an area in which a dominant signal of the ray transmitted by the first BS reaches, the dominant signal being identified on a first road based on a signal level of the ray transmitted by the first BS; configuring a second area along a layout of the first road running on a line extended from the first BS, within a range of the configured first area; performing analysis on a path of the ray transmitted by the first BS in the second area; and transmitting a result of the analysis.
Intramedullary tibia alignment system for aligning a proximal tibial resection cutting instrument, the intramedullary tibia alignment system having an alignment rod for adjusting the alignment system individually to a tibia, a tibial resection guide for guiding the cutting instrument and being connected to a proximal end portion of the alignment rod and a tibial alignment jig for orientating the tibial resection guide relative to the tibia and being connected to the alignment rod proximal to the tibial resection guide, wherein the tibial alignment jig has a sliding rail adapted to be connected to a head of the tibia at its proximal end portion, and a casing slidably receiving the sliding rail along a sliding axis, characterized in that the casing is attached to the alignment rod via a pivoting axis such that the alignment rod and the sliding rail are kept pivotable to each other, and the tibial alignment jig further comprises a user adjustment element rotatably held by the alignment rod around a rotational axis and functionally connected to the casing by a link element such that a rotation of the user adjustment element relative to the alignment rod is converted into a pivoting movement of the alignment rod relative to the sliding rail, wherein the user adjustment element and the alignment rod are adapted to interlock with each other at a plurality of rotational positions of the user adjustment element, which plurality of rotational positions correspond to different orientations of the alignment rod in accordance with the pivoting movement of the alignment rod.
A curable fluorine-containing polyether composition comprising: 100 parts by weight of a fluorine-containing polyether compound represented by the general formula: wherein R 1 is a hydrogen atom, an alkyl group having 1 to 3 carbon atoms, or a phenyl group, X is a bromine or iodine atom, 1 and m are each independently an integer of 10 or more, and 1 + m is 30 to 200; 1 to 10 parts by weight of a fluorine-containing aromatic boronic acid ester compound represented by the general formula: wherein R 2 is a linear or branched divalent aliphatic hydrocarbon group having 2 to 10 carbon atoms, R 7 is a hydrogen atom, an alkyl group having 1 to 3 carbon atoms, or a phenyl group, n is an integer of 0 to 4, and k is an integer of 1 to 3. 0.0001 to 1 parts by weight of a zero-valent or divalent organopalladium compound; 0.5 to 10 parts by weight of a basic inorganic compound or a basic organic compound; and 0 to 5 parts by weight of an organophosphorus compound represented the general formula: wherein R 3, R 4, and R 5 are each independently an aliphatic hydrocarbon group having 1 to 10 carbon atoms, an alicyclic hydrocarbon group having 5 to 12 carbon atoms, or an aromatic hydrocarbon group having 6 to 20 carbon atoms, each optionally having a substituted group; or by the general formula: wherein R 6 is a phenyl group or an aliphatic hydrocarbon group having 1 to 6 carbon atoms, each optionally having a substituted group, and Z is a divalent aliphatic hydrocarbon group having 2 to 10 carbon atoms, an aromatic hydrocarbon group having 6 to 20 carbon atoms, or a metallocene group. 100 parts by weight of a fluorine-containing polyether compound represented by the general formula: wherein R 1 is a hydrogen atom, an alkyl group having 1 to 3 carbon atoms, or a phenyl group, X is a bromine or iodine atom, 1 and m are each independently an integer of 10 or more, and 1 + m is 30 to 200; 1 to 10 parts by weight of a fluorine-containing aromatic boronic acid ester compound represented by the general formula: wherein R 2 is a linear or branched divalent aliphatic hydrocarbon group having 2 to 10 carbon atoms, R 7 is a hydrogen atom, an alkyl group having 1 to 3 carbon atoms, or a phenyl group, n is an integer of 0 to 4, and k is an integer of 1 to 3. 0.0001 to 1 parts by weight of a zero-valent or divalent organopalladium compound; 0.5 to 10 parts by weight of a basic inorganic compound or a basic organic compound; and 0 to 5 parts by weight of an organophosphorus compound represented the general formula: wherein R 3, R 4, and R 5 are each independently an aliphatic hydrocarbon group having 1 to 10 carbon atoms, an alicyclic hydrocarbon group having 5 to 12 carbon atoms, or an aromatic hydrocarbon group having 6 to 20 carbon atoms, each optionally having a substituted group; or by the general formula: wherein R 6 is a phenyl group or an aliphatic hydrocarbon group having 1 to 6 carbon atoms, each optionally having a substituted group, and Z is a divalent aliphatic hydrocarbon group having 2 to 10 carbon atoms, an aromatic hydrocarbon group having 6 to 20 carbon atoms, or a metallocene group.
A method for dynamic prioritization of uplink traffic performed by a user equipment in a wireless communication network, comprising: determining, at a scheduled entity, when a UL semi-persistent scheduling, SPS, transmission period (828, 830) at least partially overlaps with an OFF duration of a C-DRX cycle, to delay (840, 842) a transmission of uplink, UL, traffic based on at least a priority level of the UL traffic, a type of the UL traffic, a power saving mode of the scheduled entity, or a result of a cost function; delaying the transmission of the UL traffic by skipping one or more skipped UL transmission opportunities (828, 830) of a plurality of UL transmission opportunities (828, 830, 832); and transmitting the UL traffic during a subsequent UL transmission opportunity of the plurality of UL transmission opportunities that is subsequent to the one or more skipped UL transmission opportunities. determining, at a scheduled entity, when a UL semi-persistent scheduling, SPS, transmission period (828, 830) at least partially overlaps with an OFF duration of a C-DRX cycle, to delay (840, 842) a transmission of uplink, UL, traffic based on at least a priority level of the UL traffic, a type of the UL traffic, a power saving mode of the scheduled entity, or a result of a cost function; delaying the transmission of the UL traffic by skipping one or more skipped UL transmission opportunities (828, 830) of a plurality of UL transmission opportunities (828, 830, 832); and transmitting the UL traffic during a subsequent UL transmission opportunity of the plurality of UL transmission opportunities that is subsequent to the one or more skipped UL transmission opportunities.
A ceramic pressure sensor comprising a ceramic body, comprising a flexible membrane made of ceramic material capable of being deformed as a result of the pressure to be sensed and a rigid support made of ceramic material for supporting the flexible membrane, said ceramic body being formed by two distinct pieces mutually connected both electrically and mechanically, one defining the flexible membrane and the other the rigid support, said two distinct pieces being formed by two overlapping flat sheets of different thicknesses oriented with their main lying plane parallel and an electronic circuit (3a, 3b, 3c) supported by the ceramic body and comprising electrically conductive connection tracks and a resistive bridge screen printed onto said flexible membrane and the electrically conductive tracks screen printed onto one flat face of said rigid support, said electronic circuit (3a, 3b, 3c) being configured to generate an electrical signal as a function of the deformation of the flexible membrane, characterised in that the ceramic pressure sensor further comprises a protection element made of ceramic material permanently joined to said one a flat face of said rigid support opposite the membrane, said protection element being entirely positioned inside the perimeter of said one flat face and delimiting with said one flat face of said rigid support of said ceramic body a housing chamber for housing at least part of said electronic circuit (3a, 3b, 3c), there being further provided an electrical connection means for connecting said at least a part of the electronic circuit (3a, 3b, 3c) with the outside of said housing chamber, said electronic circuit (3a, 3b, 3c) comprising an analogue stage for generating the electrical signal, a conditioning stage for conditioning the acquired electrical signal comprising discrete components positioned in said housing chamber on said one flat face of said rigid support of said ceramic body, and a outputting stage for outputting the acquired signal and disposing an external reading of the same, said outputting stage being positioned outside of said housing chamber on said one flat face of said rigid support, said electric conductive tracks screen printed onto said rigid support comprising electric conductive tracks of said conditioning stage and said outputting stage screen printed on said one flat face of said rigid support, said electrical connection means comprising portions of said electric conductive tracks that cross the wall of the housing chamber in a joining area between the protection element and the rigid support of the ceramic body.
A service indication processing method, comprising: receiving, by user equipment, UE, a system message sent by a base station corresponding to a legacy carrier type, LCT cell, wherein the system message comprises information about a new carrier type, NCT frequency and information about a service area identity of a multimedia broadcast multicast service, MBMS SAI corresponding to the NCT frequency; and performing, by the UE, indication processing on an MBMS service that is being received or of interest, wherein said indication processing comprises at least one of, in an idle state of the UE, a cell selection or reselection based on the information comprised in the system message and, in a connected state of the UE, sending, by the UE, MBMS indication information to the base station corresponding to the LCT cell for cell handover, wherein said MBMS indication information is based on the information comprised in the system message; wherein resources of the NCT frequency are all used to support the MBMS, and wherein the NCT frequency is not configured to work independently and the NCT frequency requires assistance of the LCT cell in supporting the MBMS service. receiving, by user equipment, UE, a system message sent by a base station corresponding to a legacy carrier type, LCT cell, wherein the system message comprises information about a new carrier type, NCT frequency and information about a service area identity of a multimedia broadcast multicast service, MBMS SAI corresponding to the NCT frequency; and performing, by the UE, indication processing on an MBMS service that is being received or of interest, wherein said indication processing comprises at least one of, in an idle state of the UE, a cell selection or reselection based on the information comprised in the system message and, in a connected state of the UE, sending, by the UE, MBMS indication information to the base station corresponding to the LCT cell for cell handover, wherein said MBMS indication information is based on the information comprised in the system message; wherein resources of the NCT frequency are all used to support the MBMS, and wherein the NCT frequency is not configured to work independently and the NCT frequency requires assistance of the LCT cell in supporting the MBMS service.
An image forming apparatus, comprising: a main body; a fusing unit mounted in the main body to fuse an image to paper; a cover mounted to the main body, a heat shielding member mounted adjacent to an inner surface of the cover to define an external air circulation chamber between the heat shielding member and the cover, the heat shielding member having an inclined surface inclined downward with respect to the cover, characterised in that the cover has an inclined lower surface and an air flow hole, the inclined surface of the heat shielding member promoting circulation of hot air within the external air circulation chamber due to convection caused by heating of the heat shielding member by air from a fusing unit positioned beneath the heat shielding member, wherein the air flow hole in the cover is positioned so that air within the external air circulation chamber is guided upwardly by convection along the inclined lower surface of the cover and exhausts through the air flow hole whereby heating of the cover is reduced. a main body; a fusing unit mounted in the main body to fuse an image to paper; a cover mounted to the main body, a heat shielding member mounted adjacent to an inner surface of the cover to define an external air circulation chamber between the heat shielding member and the cover, the heat shielding member having an inclined surface inclined downward with respect to the cover, characterised in that the cover has an inclined lower surface and an air flow hole, the inclined surface of the heat shielding member promoting circulation of hot air within the external air circulation chamber due to convection caused by heating of the heat shielding member by air from a fusing unit positioned beneath the heat shielding member, wherein the air flow hole in the cover is positioned so that air within the external air circulation chamber is guided upwardly by convection along the inclined lower surface of the cover and exhausts through the air flow hole whereby heating of the cover is reduced.
A central core element for a separator assembly comprising: at least two porous exhaust conduits (442, 444), said porous exhaust conduits comprising an exhaust channel and one or more openings which allow fluid communication between an exterior surface of the porous exhaust conduit and the exhaust channel; characterised in that: between said porous exhaust conduits are spacer elements (446, 447) formed at opposite ends of the porous exhaust conduits to thereby define a cavity between each of said porous exhaust conduits; each cavity accommodating a first portion of a membrane stack assembly such that the first portion separates the porous exhaust coduits. at least two porous exhaust conduits (442, 444), said porous exhaust conduits comprising an exhaust channel and one or more openings which allow fluid communication between an exterior surface of the porous exhaust conduit and the exhaust channel; characterised in that: between said porous exhaust conduits are spacer elements (446, 447) formed at opposite ends of the porous exhaust conduits to thereby define a cavity between each of said porous exhaust conduits; each cavity accommodating a first portion of a membrane stack assembly such that the first portion separates the porous exhaust coduits. between said porous exhaust conduits are spacer elements (446, 447) formed at opposite ends of the porous exhaust conduits to thereby define a cavity between each of said porous exhaust conduits; each cavity accommodating a first portion of a membrane stack assembly such that the first portion separates the porous exhaust coduits.
Process for making an electrode wherein the process comprises the following steps (a) providing a lithiated transition metal oxide according to the formula Li 1+x TM 1-x O 2 wherein x is in the range of from zero to 0.1 and TM contains nickel and at least one of Co, Mn and Al, (b) mixing the lithiated transition metal oxide from step (a) with carbon in electrically conductive form, (c) exposing the mixture obtained in step (b) to a pressure in the range of from 100 to 500 MPa over a period of time of from one second to one minute, thereby causing cracks in at least some of the particles of the electrode active material, (d) mixing the mixture from step (c) with a binder polymer and, optionally, with further carbon in electrically conductive form and with a solvent, (e) applying the mixture from step (d) to a metal foil. (a) providing a lithiated transition metal oxide according to the formula Li 1+x TM 1-x O 2 wherein x is in the range of from zero to 0.1 and TM contains nickel and at least one of Co, Mn and Al, (b) mixing the lithiated transition metal oxide from step (a) with carbon in electrically conductive form, (c) exposing the mixture obtained in step (b) to a pressure in the range of from 100 to 500 MPa over a period of time of from one second to one minute, thereby causing cracks in at least some of the particles of the electrode active material, (d) mixing the mixture from step (c) with a binder polymer and, optionally, with further carbon in electrically conductive form and with a solvent, (e) applying the mixture from step (d) to a metal foil.
A die (302,304) for a printhead, comprising: a plurality of fluid feed holes disposed in a line parallel to a longitudinal axis of the die (302,304), wherein the fluid feed holes are formed through a substrate of the die (302,304); a plurality of fluidic actuators, proximate to and on either side of the plurality of fluid feed holes, to eject fluid received from the plurality of fluid feed holes; logic circuitry to operate the plurality of fluidic actuators, wherein the logic circuitry is disposed on a first side of the plurality of fluid feed holes; power circuitry to power the plurality of fluidic actuators, wherein the power circuitry is disposed on an opposite side of the plurality of fluid feed holes from the logic circuitry; and activation traces disposed between each of the plurality of fluid feed holes to couple the logic circuitry to the power circuitry. a plurality of fluid feed holes disposed in a line parallel to a longitudinal axis of the die (302,304), wherein the fluid feed holes are formed through a substrate of the die (302,304); a plurality of fluidic actuators, proximate to and on either side of the plurality of fluid feed holes, to eject fluid received from the plurality of fluid feed holes; logic circuitry to operate the plurality of fluidic actuators, wherein the logic circuitry is disposed on a first side of the plurality of fluid feed holes; power circuitry to power the plurality of fluidic actuators, wherein the power circuitry is disposed on an opposite side of the plurality of fluid feed holes from the logic circuitry; and activation traces disposed between each of the plurality of fluid feed holes to couple the logic circuitry to the power circuitry.
Work unit for transferring substrates with at least one transport container which is to be closed circumferentially by a cover part and has a removable carrying insert with carrying pads for the substrates, and with at least one substrate receptacle and a handling unit, which is accommodated in a transfer station, wherein the transport container and the substrate receptacle are arranged in the access region of the handling unit for transferring the substrates, wherein the at least one transport container receives the carrying insert, and the carrying insert is configured in such a manner that it is coupled in a fixed position by the cover part against the handling unit heading for the transport container and, by means of the positionally fixed coupling against the handling unit heading for the transport container, forms part of an end effector of the handling unit.