mhurhangee/patent-ind-claim-en huggingface dataset:
An actuator device for a friction clutch, the device comprising a push lever arm for applying a force on the friction clutch and a push ring arranged on the push lever arm for contacting the friction clutch, a drive unit connected to the push lever arm for movement of the push lever arm in a push lever arm movement direction , and a bearing arranged on the push lever arm , the push ring being journaled by the bearing such that the push ring is rotatable relative to the push lever arm about a rotation axis , the push ring and the bearing being pivotally connected to the push lever arm such that the push ring and the bearing are pivotable relative to the push lever arm about a push ring pivot axis , characterized in that the push ring and the bearing are displaceably arranged in the push lever arm allowing adjustment of the position of the push ring pivot axis relative to the push lever arm , the push ring and the bearing being displaceable in a direction substantially perpendicular to the push ring pivot axis and the push lever arm movement direction .
A computer-enabled method comprising: receiving input from a movement sensor based on a movement of an electronic device ; in response to the received movement sensor input: performing a relevance algorithm to select a first plurality (204-206; 302-304) of icons as a subset of a larger plurality of icons available for display; and displaying the first plurality (204-206; 302-304) of icons on a touch-sensitive display ; wherein: each icon is an image that is used to represent and launch a respective application; and in order to select the first plurality of icons from the larger plurality of icons, the relevance algorithm uses as input user health information represented by input received from a biometric sensor. receiving input from a movement sensor based on a movement of an electronic device ; in response to the received movement sensor input: performing a relevance algorithm to select a first plurality (204-206; 302-304) of icons as a subset of a larger plurality of icons available for display; and displaying the first plurality (204-206; 302-304) of icons on a touch-sensitive display ; performing a relevance algorithm to select a first plurality (204-206; 302-304) of icons as a subset of a larger plurality of icons available for display; and displaying the first plurality (204-206; 302-304) of icons on a touch-sensitive display ; wherein: each icon is an image that is used to represent and launch a respective application; and in order to select the first plurality of icons from the larger plurality of icons, the relevance algorithm uses as input user health information represented by input received from a biometric sensor. each icon is an image that is used to represent and launch a respective application; and in order to select the first plurality of icons from the larger plurality of icons, the relevance algorithm uses as input user health information represented by input received from a biometric sensor.
A battery pack comprising: at least one battery cell ; a memory ; a charging circuit electrically connected to the at least one battery cell and configured to control a charging current from a charger to the at least one battery cell ; and an electronic processor configured to control the charging circuit , wherein the electronic processor is further configured to: determine a type of charger to which the battery pack is connected, determine, based on the type of charger , that the charger will stop charging the battery pack after a predetermined period of time and before the battery pack is fully charged, determine a disconnect time smaller than the predetermined period of time, control the charging circuit to allow the charging current to charge the at least one battery cell , control the charging circuit to electrically disconnect the at least one battery cell from the charger after the disconnect time elapses, and control the charging circuit to electrically reconnect the at least one battery cell and the charger after disconnecting the at least one battery cell from the charger . at least one battery cell ; a memory ; a charging circuit electrically connected to the at least one battery cell and configured to control a charging current from a charger to the at least one battery cell ; and an electronic processor configured to control the charging circuit , wherein the electronic processor is further configured to: determine a type of charger to which the battery pack is connected, determine, based on the type of charger , that the charger will stop charging the battery pack after a predetermined period of time and before the battery pack is fully charged, determine a disconnect time smaller than the predetermined period of time, control the charging circuit to allow the charging current to charge the at least one battery cell , control the charging circuit to electrically disconnect the at least one battery cell from the charger after the disconnect time elapses, and control the charging circuit to electrically reconnect the at least one battery cell and the charger after disconnecting the at least one battery cell from the charger . determine a type of charger to which the battery pack is connected, determine, based on the type of charger , that the charger will stop charging the battery pack after a predetermined period of time and before the battery pack is fully charged, determine a disconnect time smaller than the predetermined period of time, control the charging circuit to allow the charging current to charge the at least one battery cell , control the charging circuit to electrically disconnect the at least one battery cell from the charger after the disconnect time elapses, and control the charging circuit to electrically reconnect the at least one battery cell and the charger after disconnecting the at least one battery cell from the charger .
A vehicle window assembly , comprising: a glass ply ; and an electro-conductive coating located on a surface of the glass ply , wherein the electro-conductive coating has an outer peripheral edge that is spaced from an inner metal edge of a vehicle frame to define an antenna slot between the inner metal edge of the vehicle frame and the outer peripheral edge of the electro-conductive coating , characterized in that the electro-conductive coating that is spaced from the inner metal edge of the vehicle frame to define the antenna slot includes at least one slit on the outer peripheral edge , wherein the at least one slit increases the electrical antenna slot length, wherein the antenna slot and the at least one slit are sized to tune the slot antenna to a desired resonant frequency. a glass ply ; and an electro-conductive coating located on a surface of the glass ply , wherein the electro-conductive coating has an outer peripheral edge that is spaced from an inner metal edge of a vehicle frame to define an antenna slot between the inner metal edge of the vehicle frame and the outer peripheral edge of the electro-conductive coating , characterized in that the electro-conductive coating that is spaced from the inner metal edge of the vehicle frame to define the antenna slot includes at least one slit on the outer peripheral edge , wherein the at least one slit increases the electrical antenna slot length, wherein the antenna slot and the at least one slit are sized to tune the slot antenna to a desired resonant frequency.
A negative electrode plate for lithium secondary battery, comprising a negative electrode current collector and a negative electrode active material layer disposed on at least one surface of the negative electrode current collector, wherein a surface of the negative electrode active material layer closer to the current collector is provided with an elastic coating, and the elastic coating comprises an elastic polymer and a conductive agent; at the pressure of 1 MPa to 20 MPa, the elastic coating has a compression deformation of 30% to 60% and an elastic modulus of 5 MPa to 100 MPa, determined as described in the description; wherein the mass of the elastic polymer is 50% to 80% of the total mass of the elastic coating, and the mass of the conductive agent is 20% to 50% of the total mass of the elastic coating; wherein the elastic polymer comprises one or more of polyethylene, polyethylene oxide, polyvinylidene fluoride, or polystyrene butadiene. wherein the mass of the elastic polymer is 50% to 80% of the total mass of the elastic coating, and the mass of the conductive agent is 20% to 50% of the total mass of the elastic coating; wherein the elastic polymer comprises one or more of polyethylene, polyethylene oxide, polyvinylidene fluoride, or polystyrene butadiene.
Level measuring device for determining the level of a process medium in a vessel using a time-of-flight method, characterized in that the level measuring device has a means to determine the dielectric coefficient of a second medium , which is located between the level measuring device and the process medium , wherein said means for determining the dielectric coefficient comprises at least a waveguide for a high-frequency measuring signal, wherein said guide is at least partially filled with a dielectric and is designed and can be arranged in such a way that the dielectric forms an interface with the second medium at the level of said interface a part of the measuring signal - which is directed to the second medium via the waveguide - is reflected.
A power tool comprising: a housing ; a motor disposed in the housing ; an output spindle extending outward from the housing and configured to be rotationally driven by the motor ; a keyed chuck coupled to the output spindle for rotation with the output spindle ; a chuck key holder configured to releasably retain a chuck key having a first shaft with a key disposed thereon for operating the chuck, and a second shaft coupled to first shaft generally perpendicular to the first shaft , the second shaft including a lever portion, wherein the chuck key holder includes a first recess configured to receive the first shaft and a second recess with a sheath configured to receive the second shaft with the lever portion exposed from the sheath ; and characterized in that the sheath is further configured to enable angular rotation of the chuck key about the first shaft between a release position where the chuck key can be removed from the holder and a retained position where the chuck key is retained in the holder, such that the second shaft can be removed by grasping the lever portion and pivoting the chuck key about the first shaft . a housing ; a motor disposed in the housing ; an output spindle extending outward from the housing and configured to be rotationally driven by the motor ; a keyed chuck coupled to the output spindle for rotation with the output spindle ; a chuck key holder configured to releasably retain a chuck key having a first shaft with a key disposed thereon for operating the chuck, and a second shaft coupled to first shaft generally perpendicular to the first shaft , the second shaft including a lever portion, wherein the chuck key holder includes a first recess configured to receive the first shaft and a second recess with a sheath configured to receive the second shaft with the lever portion exposed from the sheath ; and characterized in that the sheath is further configured to enable angular rotation of the chuck key about the first shaft between a release position where the chuck key can be removed from the holder and a retained position where the chuck key is retained in the holder, such that the second shaft can be removed by grasping the lever portion and pivoting the chuck key about the first shaft .
A content delivery network comprising: a proxy cache device in communication with a telecommunications network , the telecommunications network configured to transmit a request for a content file from a user device connected to the telecommunications network to the proxy cache device ; and a plurality of edge servers in communication with the proxy cache device through a local network , each of the plurality of edge servers configured to obtain the content file in response to receiving the request for the content file and cache the obtained content file; wherein the proxy cache device is further configured to calculate a hash value based at least on the request for the content file, select a first edge server from the plurality of edge servers based at least on the calculated hash value, wherein the selected first edge server is associated with the calculated hash value, and transmit the request for the content file to the selected first edge server , wherein the proxy cache device is further configured to store the content file in a local storage, wherein each hash value is associated with one of the plurality of edge servers . a proxy cache device in communication with a telecommunications network , the telecommunications network configured to transmit a request for a content file from a user device connected to the telecommunications network to the proxy cache device ; and a plurality of edge servers in communication with the proxy cache device through a local network , each of the plurality of edge servers configured to obtain the content file in response to receiving the request for the content file and cache the obtained content file; wherein the proxy cache device is further configured to calculate a hash value based at least on the request for the content file, select a first edge server from the plurality of edge servers based at least on the calculated hash value, wherein the selected first edge server is associated with the calculated hash value, and transmit the request for the content file to the selected first edge server , wherein the proxy cache device is further configured to store the content file in a local storage, wherein each hash value is associated with one of the plurality of edge servers .
A method for treating an alloy comprising magnesium silicide from 5 to 14 wt.%, magnesium from 3 to 12 wt.%, element X from 2 to 12 wt.% which is copper (Cu), zinc (Zn), silver (Ag), gold (Au) or Lithium (Li) or any combination thereof, Manganese from 0.1 to 1.2 wt.%, iron not more than 1.5 wt.%, titanium or the other grain refining elements from Nb, and Sc from 0.02 to 0.4 wt.% , impurity and minor alloying elements at a level of maximum 0.3 wt.% and totally <0.5 wt % of at least one element selected from zirconium (Zr), niobium (Nb), gadolinium (Gd), calcium (Ca), yttrium (Y), antinomy (Sb), bismuth (Bi), neodymium (Nd), ytterbium (Yb), vanadium (V), chromium (Cr), beryllium (Be) and boron (B) and the remainder aluminium, wherein the alloy is treated by solutionizing at 400 to 550°C for a time less than 90 minutes and subsequently ageing at a temperature below 250°C for a time less than 10 hours.
A mixed reality system, comprising: a sensor configured to acquire readings of real-world data, and display, on an output device, a real-world visualization of the real-world data based on the readings to a user, wherein the sensor has one or more parameters affecting the real-world visualization; and a processing circuitry configured to: obtain information of one or more virtual entities located within an area from which the readings are acquired, the information defining, for each of the virtual entities, one or more simulated physical properties: determine, for at least one given virtual entity of the virtual entities, a virtual entity visualization of the given virtual entity, the virtual entity visualization determined by manipulating a simulated reading of the simulated physical properties based on the parameters affecting the real-world visualization: and display the virtual entity visualizations in combination with the real-world visualization, thereby enabling a user viewing the output device to view the virtual entity visualizations and the real-world visualization; wherein the manipulating of the simulated reading further includes employing one or more algorithms, employed on the readings of the real-world data, also on the simulated reading. a sensor configured to acquire readings of real-world data, and display, on an output device, a real-world visualization of the real-world data based on the readings to a user, wherein the sensor has one or more parameters affecting the real-world visualization; and a processing circuitry configured to: obtain information of one or more virtual entities located within an area from which the readings are acquired, the information defining, for each of the virtual entities, one or more simulated physical properties: determine, for at least one given virtual entity of the virtual entities, a virtual entity visualization of the given virtual entity, the virtual entity visualization determined by manipulating a simulated reading of the simulated physical properties based on the parameters affecting the real-world visualization: and display the virtual entity visualizations in combination with the real-world visualization, thereby enabling a user viewing the output device to view the virtual entity visualizations and the real-world visualization; determine, for at least one given virtual entity of the virtual entities, a virtual entity visualization of the given virtual entity, the virtual entity visualization determined by manipulating a simulated reading of the simulated physical properties based on the parameters affecting the real-world visualization: and display the virtual entity visualizations in combination with the real-world visualization, thereby enabling a user viewing the output device to view the virtual entity visualizations and the real-world visualization;
A positive displacement pump , comprising: a pumphead ; a motor operably connected to the pumphead to drive the pump; a leak sensor configured to detect leakage from the pumphead or tube installed therein; a memory ; a network interface ; a processor in communication with the memory and the network interface, the processor configured to: subscribe, via the network interface, to a command hub that publishes commands for the pump; control the motor to drive the pumphead according to commands received from the command hub via the network interface; collect operation parameters from the motor and the leak sensor; and send the operation parameters to a remote server via the network interface. a pumphead ; a motor operably connected to the pumphead to drive the pump; a leak sensor configured to detect leakage from the pumphead or tube installed therein; a memory ; a network interface ; a processor in communication with the memory and the network interface, the processor configured to: subscribe, via the network interface, to a command hub that publishes commands for the pump; control the motor to drive the pumphead according to commands received from the command hub via the network interface; collect operation parameters from the motor and the leak sensor; and send the operation parameters to a remote server via the network interface. subscribe, via the network interface, to a command hub that publishes commands for the pump; control the motor to drive the pumphead according to commands received from the command hub via the network interface; collect operation parameters from the motor and the leak sensor; and send the operation parameters to a remote server via the network interface.
A network node for a wireless communication system , the network node being configured to: localize a user node in a first localization operation carried out at a first frequency; determine an accuracy value associated with the first localization operation; adjust at least one beam parameter for radio beams to be used in a second localization operation based on the determined accuracy value, the second localization operation carried out at a second frequency that is greater than the first frequency; wherein the network node is configured to determine the accuracy value associated with the first localization operation by: tracking a rate of change of an angle of a radio beacon signal transmitted from the user node relative to the network node ; and if the rate of change of the angle exceeds a pre-determined value assign a first value to the accuracy value, the first value being lower than a previous accuracy value and if the rate of change is less than the pre-determined value assign a second value to the accuracy value, the second value being higher than a previous accuracy value. localize a user node in a first localization operation carried out at a first frequency; determine an accuracy value associated with the first localization operation; adjust at least one beam parameter for radio beams to be used in a second localization operation based on the determined accuracy value, the second localization operation carried out at a second frequency that is greater than the first frequency; wherein the network node is configured to determine the accuracy value associated with the first localization operation by: tracking a rate of change of an angle of a radio beacon signal transmitted from the user node relative to the network node ; and if the rate of change of the angle exceeds a pre-determined value assign a first value to the accuracy value, the first value being lower than a previous accuracy value and if the rate of change is less than the pre-determined value assign a second value to the accuracy value, the second value being higher than a previous accuracy value.
A wireless communication method, comprising: receiving (S210), by a terminal device, synchronization signal block, SSB, indication information transmitted by a network device, wherein the SSB indication information is an SSB quasi-co-location, QCL, index, the SSB QCL index is a result of an SSB position index modulo parameter Q, the parameter Q is used for determining a QCL relationship of an SSB, and the parameter Q is a maximum number of SSBs that are transmitted in a time-window and are not in the QCL relationship, and the SSB indication information is used for determining a target pathloss reference signal; determining, by the terminal device, the target pathloss reference signal according to the SSB indication information; and measuring (S220), by the terminal device, the target pathloss reference signal to determine a path loss between the terminal device and the network device. receiving (S210), by a terminal device, synchronization signal block, SSB, indication information transmitted by a network device, wherein the SSB indication information is an SSB quasi-co-location, QCL, index, the SSB QCL index is a result of an SSB position index modulo parameter Q, the parameter Q is used for determining a QCL relationship of an SSB, and the parameter Q is a maximum number of SSBs that are transmitted in a time-window and are not in the QCL relationship, and the SSB indication information is used for determining a target pathloss reference signal; determining, by the terminal device, the target pathloss reference signal according to the SSB indication information; and measuring (S220), by the terminal device, the target pathloss reference signal to determine a path loss between the terminal device and the network device.