mhurhangee/patent-ind-claim-en huggingface dataset:
A controller for an internal combustion engine, wherein the internal combustion engine includes a fuel injection valve and a fuel supply system , the fuel injection valve includes a valve member that opens and injects fuel when energized, the fuel supply system supplies fuel to the fuel injection valve , and the controller is configured to control the fuel injection valve so that the fuel injection valve selectively performs partial lift injection, which does not open the valve member at a fully open position, and full lift injection, which opens the valve member at the fully open position, the controller comprising: an energizing time setting unit configured to set an energizing time of the fuel injection valve ; a fuel pressure calculation unit configured to calculate fuel pressure, which is pressure of the fuel supplied to the fuel injection valve , based on output signals of a fuel pressure sensor that are input to the controller in predetermined cycles; and a smoothening process unit configured to perform a smoothening process on the fuel pressure calculated by the fuel pressure calculation unit to calculate graded fuel pressure, which is proximate to an average value of the fuel pressure obtained during full lift injection, at which fluctuation of the fuel pressure that occurs when the fuel injection valve injects fuel is smoothened, wherein the energizing time setting unit is configured to set an energizing time for the full lift injection based on the graded fuel pressure calculated by the smoothening process unit and set an energizing time for the partial lift injection based on the fuel pressure calculated by the fuel pressure calculation unit . an energizing time setting unit configured to set an energizing time of the fuel injection valve ; a fuel pressure calculation unit configured to calculate fuel pressure, which is pressure of the fuel supplied to the fuel injection valve , based on output signals of a fuel pressure sensor that are input to the controller in predetermined cycles; and a smoothening process unit configured to perform a smoothening process on the fuel pressure calculated by the fuel pressure calculation unit to calculate graded fuel pressure, which is proximate to an average value of the fuel pressure obtained during full lift injection, at which fluctuation of the fuel pressure that occurs when the fuel injection valve injects fuel is smoothened, wherein the energizing time setting unit is configured to set an energizing time for the full lift injection based on the graded fuel pressure calculated by the smoothening process unit and set an energizing time for the partial lift injection based on the fuel pressure calculated by the fuel pressure calculation unit .
A method of producing a packaged microelectronic component joined to a secondary structure comprising: providing said packaged microelectronic component that includes a substrate having a top surface and a bottom surface , a semiconductor die coupled to said top surface, wherein said substrate comprises a heat sink configured for dissipating heat; providing a secondary structure comprising a printed circuit board, PCB having a plurality of thermal vias extending through it, and applying a metal particle-containing material to either said bottom surface of said substrate or to a mounting surface of said PCB, said metal particle-containing material being configured to sinter to produce a sintered bond layer joining said packaged microelectronic component to said secondary structure , wherein said sintering joins said heat sink with said plurality thermal vias. providing said packaged microelectronic component that includes a substrate having a top surface and a bottom surface , a semiconductor die coupled to said top surface, wherein said substrate comprises a heat sink configured for dissipating heat; providing a secondary structure comprising a printed circuit board, PCB having a plurality of thermal vias extending through it, and applying a metal particle-containing material to either said bottom surface of said substrate or to a mounting surface of said PCB, said metal particle-containing material being configured to sinter to produce a sintered bond layer joining said packaged microelectronic component to said secondary structure , wherein said sintering joins said heat sink with said plurality thermal vias.
A high frequency filter, comprising: a multilayer substrate including: a first substrate in which a first stripline is wired in an inner layer of the first substrate; a second substrate in which a second stripline is wired in an inner layer of the second substrate; and a third substrate inserted between the first substrate and the second substrate; and a coaxial line including: a first columnar conductor disposed inside the multilayer substrate such that one end of the first columnar conductor is coupled to the first stripline and that another end of the first columnar conductor is coupled to the second stripline; and one or more second columnar conductors penetrating the multilayer substrate such that one end of each of the one or more second columnar conductors is coupled to a ground layer formed on, of two surfaces of the first substrate, a surface opposite to a surface on which the third substrate is disposed and that another end of each of the one or more second columnar conductors is coupled to a ground layer formed on, of two surfaces of the second substrate, a plane opposite to a surface on which the third substrate is disposed, the first columnar conductor acting as an inner conductor, and the second columnar conductors acting as outer conductors, wherein each of the first and second striplines is coupled to an open stub configured to act as a resonator and a matching conductor configured to act as a capacitance matching element . a multilayer substrate including: a first substrate in which a first stripline is wired in an inner layer of the first substrate; a second substrate in which a second stripline is wired in an inner layer of the second substrate; and a third substrate inserted between the first substrate and the second substrate; and a coaxial line including: a first columnar conductor disposed inside the multilayer substrate such that one end of the first columnar conductor is coupled to the first stripline and that another end of the first columnar conductor is coupled to the second stripline; and one or more second columnar conductors penetrating the multilayer substrate such that one end of each of the one or more second columnar conductors is coupled to a ground layer formed on, of two surfaces of the first substrate, a surface opposite to a surface on which the third substrate is disposed and that another end of each of the one or more second columnar conductors is coupled to a ground layer formed on, of two surfaces of the second substrate, a plane opposite to a surface on which the third substrate is disposed, the first columnar conductor acting as an inner conductor, and the second columnar conductors acting as outer conductors, wherein each of the first and second striplines is coupled to an open stub configured to act as a resonator and a matching conductor configured to act as a capacitance matching element .
Apparatus for generating a relative movement between a tool and a workpiece , in particular in machine tools, manufacturing or handling systems, having a basic drive device which acts at least indirectly on the tool and/or the workpiece , and having at least one pulse transmission device for transmitting a mechanical pulse to the basic drive device , wherein the pulse transmission device has at least one movable mass , at least one drive device for the at least one movable mass and at least one stop element for the at least one movable mass , characterised in that the pulse transmission device has two stop elements arranged opposite one another for one of the movable masses . at least one pulse transmission device for transmitting a mechanical pulse to the basic drive device , wherein the pulse transmission device has at least one movable mass , at least one drive device for the at least one movable mass and at least one stop element for the at least one movable mass , characterised in that the pulse transmission device has two stop elements arranged opposite one another for one of the movable masses .
A medical or dental instrument part , comprising: a coupling device for connecting the instrument part to a control, regulating or supply unit , and a memory device that can be operated with electrical power for storing identification data and/or operating and/or care data of the instrument part , characterized by exactly three electrical lines , wherein a first and second electrical line of these exactly three electrical lines are provided for supplying electrical power to a lighting device that is provided on the instrument part or can be connected to the instrument part for operating the lighting device and for supplying electrical power to the memory device for operating the memory device , and wherein a third electrical line of the exactly three electrical lines is provided for transmitting identification data and/or operating data and/or care data between the memory device and the control, regulating or supply unit connectable to the instrument part .
A signal resource measurement method, performed by a terminal, characterized by comprising: measuring N first signal resources of a target cell, to obtain respective first measurements of the N first signal resources, wherein N is an integer greater than 1 and less than or equal to the number of signal resources configured in the target cell; and when the first measurement of at least one first signal resource among the N first signal resources satisfies a first preset condition, measuring a second signal resource of the target cell, to obtain a second measurement; wherein the second signal resource is different from the N first signal resources; removing, from the N first signal resources, the at least one first signal resource corresponding to the first measurement satisfying the first preset condition; when the second measurement satisfies a second preset condition, determining at least one signal resource corresponding to the second measurement as the first signal resource, to update the N first signal resources. measuring N first signal resources of a target cell, to obtain respective first measurements of the N first signal resources, wherein N is an integer greater than 1 and less than or equal to the number of signal resources configured in the target cell; and when the first measurement of at least one first signal resource among the N first signal resources satisfies a first preset condition, measuring a second signal resource of the target cell, to obtain a second measurement; wherein the second signal resource is different from the N first signal resources; removing, from the N first signal resources, the at least one first signal resource corresponding to the first measurement satisfying the first preset condition; when the second measurement satisfies a second preset condition, determining at least one signal resource corresponding to the second measurement as the first signal resource, to update the N first signal resources.
An agricultural implement, comprising: a main frame which carries a plurality of soil working tools , a first support frame which is pivotally connected to the main frame via a first support frame joint and which carries at least one first rolling ground support , such as a wheel or a roller, a control lever which is pivotally connected to the main frame via a control lever joint , a support frame control link which is pivotally connected to the control lever via a first support frame control link joint and which is pivotally connected to the first support frame via a second support frame control link joint , so that rotation (V1) of the control lever around the control lever joint provides rotation (V2) of the first support frame relative to the main frame , wherein the control lever is rotatable in a first direction of rotation (V1) so that the first support frame control link joint can pass a line (C1) through centers of rotation of the control lever joint and the second support frame control link joint , and wherein the first support frame , when the first support frame control link joint passes the line (C1), changes direction of rotation (-V2). a main frame which carries a plurality of soil working tools , a first support frame which is pivotally connected to the main frame via a first support frame joint and which carries at least one first rolling ground support , such as a wheel or a roller, a control lever which is pivotally connected to the main frame via a control lever joint , a support frame control link which is pivotally connected to the control lever via a first support frame control link joint and which is pivotally connected to the first support frame via a second support frame control link joint , so that rotation (V1) of the control lever around the control lever joint provides rotation (V2) of the first support frame relative to the main frame , wherein the control lever is rotatable in a first direction of rotation (V1) so that the first support frame control link joint can pass a line (C1) through centers of rotation of the control lever joint and the second support frame control link joint , and wherein the first support frame , when the first support frame control link joint passes the line (C1), changes direction of rotation (-V2).
A method of controlling a packet based call between a local party and a remote party, the method comprising: a user equipment (50-1, 50-2) associated with the local party establishing a control plane session of the call with an Internet Protocol multimedia system ; the user equipment (50-1, 50-2) establishing a media session of the call, the media session being managed by the Internet Protocol multimedia system ; the user equipment (50-1, 50-2) determining a local endpoint (60-1, 60-2) for terminating an additional media session at the local party; the user equipment (50-1, 50-2) sending a first message of the control plane session to the Internet Protocol multimedia system , the first message indicating the local endpoint (60-1, 60-2) and that management of the additional media session by the Internet Protocol multimedia system is not required; the user equipment (50-1, 50-2) receiving a second message of the control plane session from the Internet Protocol multimedia system , the second message indicating a remote endpoint (60-2, 60-1) for terminating the additional media session at the remote party; and the user equipment (50-1, 50-2) configuring the local endpoint (60-1, 60-2) for transfer of media with the indicated remote endpoint (60-2, 60-1) via the additional media session. a user equipment (50-1, 50-2) associated with the local party establishing a control plane session of the call with an Internet Protocol multimedia system ; the user equipment (50-1, 50-2) establishing a media session of the call, the media session being managed by the Internet Protocol multimedia system ; the user equipment (50-1, 50-2) determining a local endpoint (60-1, 60-2) for terminating an additional media session at the local party; the user equipment (50-1, 50-2) sending a first message of the control plane session to the Internet Protocol multimedia system , the first message indicating the local endpoint (60-1, 60-2) and that management of the additional media session by the Internet Protocol multimedia system is not required; the user equipment (50-1, 50-2) receiving a second message of the control plane session from the Internet Protocol multimedia system , the second message indicating a remote endpoint (60-2, 60-1) for terminating the additional media session at the remote party; and the user equipment (50-1, 50-2) configuring the local endpoint (60-1, 60-2) for transfer of media with the indicated remote endpoint (60-2, 60-1) via the additional media session.
Local coil for a magnetic resonance tomography scanner having an antenna device, wherein the antenna device has a conductor loop and a plurality of electronic function groups, wherein a function group is one of preamplifiers, baluns, mixers, diplexers, impedance matching networks, and safety circuits for protection of the antenna and/or patient, wherein the electronic function groups are arranged in a distributed manner spaced apart from one another and are electrically connected to one another by flexible conductor segments , wherein the electronic function groups are arranged along the extension of the conductor loop and/or the antenna device has a plurality of conductor loops and the electronic function groups are arranged on or between flexible conductor segments, the individual conductor loops connect to form an antenna matrix, characterised in that components of an electronic function group are arranged directly on a flexible conductor segment , wherein the components are not arranged on a circuit board and are connected by the circuit board to the flexible conductor segment, wherein the flexible conductor segment has a bracing in the region of the electronic function group, wherein the bracing has a stiffer carrier material in the flexible conductor segment and/or additional layers of a carrier material and/or a layer of the carrier material thicker in comparison to the adjacent flexible region. components of an electronic function group are arranged directly on a flexible conductor segment , wherein the components are not arranged on a circuit board and are connected by the circuit board to the flexible conductor segment, wherein the flexible conductor segment has a bracing in the region of the electronic function group, wherein the bracing has a stiffer carrier material in the flexible conductor segment and/or additional layers of a carrier material and/or a layer of the carrier material thicker in comparison to the adjacent flexible region.
A method of pairing an IoT, Internet of things, device with a mobile terminal , characterized by comprising the steps of: generating, in a vibration area provided on a touch screen of the mobile terminal , a vibration having a designated vibration pattern for pairing the IoT device , when the IoT device contacted with the vibration area is recognized, transmitting vibration pattern information corresponding to the designated vibration pattern from the IoT device to the mobile terminal ; and performing pairing with the IoT device when the received vibration pattern information is identical to the designated vibration pattern. generating, in a vibration area provided on a touch screen of the mobile terminal , a vibration having a designated vibration pattern for pairing the IoT device , when the IoT device contacted with the vibration area is recognized, transmitting vibration pattern information corresponding to the designated vibration pattern from the IoT device to the mobile terminal ; and performing pairing with the IoT device when the received vibration pattern information is identical to the designated vibration pattern.
A consumer product comprising a micro-scale heterogeneous emulsion which comprises droplets having at least one linear dimension approximately between 0.001 microns and 100 microns, the micro-scale heterogeneous emulsion comprising: a first aqueous internal phase; a second non-aqueous internal phase; a silicone external phase; wherein the first internal phase and the second internal phase are each stabilized within the external phase; wherein the second internal phase differs from the first internal phase in chemical makeup; wherein the first internal phase comprises water as polar solvent; wherein the second internal phase comprises a non-aqueous polar solvent; wherein the external phase comprises a silicone; and wherein the micro-scale heterogeneous emulsion includes one or more stabilizers to stabilize the internal phases within the external phase. a first aqueous internal phase; a second non-aqueous internal phase; a silicone external phase; wherein the first internal phase and the second internal phase are each stabilized within the external phase; wherein the second internal phase differs from the first internal phase in chemical makeup; wherein the first internal phase comprises water as polar solvent; wherein the second internal phase comprises a non-aqueous polar solvent; wherein the external phase comprises a silicone; and wherein the micro-scale heterogeneous emulsion includes one or more stabilizers to stabilize the internal phases within the external phase.
An implantable medical device, comprising: a therapy module having a capacitor array comprising a plurality of capacitors and configured to couple the capacitor array to a plurality of extra-cardiovascular electrodes to deliver a composite pacing pulse to a patient's heart; and a pacing control module coupled to the therapy module and configured to control the therapy module to sequentially discharge at least a portion of the plurality of capacitors to produce a series of at least two individual pulses that define the composite pacing pulse. a therapy module having a capacitor array comprising a plurality of capacitors and configured to couple the capacitor array to a plurality of extra-cardiovascular electrodes to deliver a composite pacing pulse to a patient's heart; and a pacing control module coupled to the therapy module and configured to control the therapy module to sequentially discharge at least a portion of the plurality of capacitors to produce a series of at least two individual pulses that define the composite pacing pulse.
A sensing apparatus comprising: surface enhanced infrared absorption stage comprising a substrate ; a static island extending from the substrate having a dimension parallel to the substrate of at least one micrometer, the static island having a plasmonically active island cap ; and a movable nano finger extending from the substrate and aligned with the dimension, the movable nano finger having a plasmonicaly active finger cap closable to less than or equal to 5 nm of the island cap. surface enhanced infrared absorption stage comprising a substrate ; a static island extending from the substrate a substrate ; a static island extending from the substrate having a dimension parallel to the substrate of at least one micrometer, the static island having a plasmonically active island cap ; and a movable nano finger extending from the substrate and aligned with the dimension, the movable nano finger having a plasmonicaly active finger cap closable to less than or equal to 5 nm of the island cap.
A solid-state image pickup apparatus comprising: a pixel array including a plurality of first pixels in which an On Chip Lens of a standard size is formed, at least one second pixel in which an On Chip Lens of a size different from the standard size is formed, and a plurality of third pixels that are positioned between the at least one second pixel and the plurality of first pixels and in which a shape of the On Chip Lens is deformed from an original standard size among the plurality of first pixels on the pixel array ; and a correction section that corrects a color signal of a third pixel from the plurality of third pixels to account for a change in sensitivity due to the deformed On Chip Lens. a pixel array including a plurality of first pixels in which an On Chip Lens of a standard size is formed, at least one second pixel in which an On Chip Lens of a size different from the standard size is formed, and a plurality of third pixels that are positioned between the at least one second pixel and the plurality of first pixels and in which a shape of the On Chip Lens is deformed from an original standard size among the plurality of first pixels on the pixel array ; and a correction section that corrects a color signal of a third pixel from the plurality of third pixels to account for a change in sensitivity due to the deformed On Chip Lens.