mhurhangee/patent-ind-claim-en huggingface dataset:
A method for manufacturing an array substrate, comprising the following steps of: forming an active layer and a gate insulating layer successively on a base substrate of the array substrate; forming a first transparent conductive layer, TCO , and a metallic layer successively on the base substrate of the array substrate; forming a gate electrode , a source electrode , a drain electrode and a first transparent electrode by a plurality of patterning processes; forming a protective layer , wherein the active layer comprises a doped region ; forming via-holes in the protective layer respectively at locations corresponding to the doped region of the active layer , the source electrode and the drain electrode , wherein the doped region of the active layer , the source electrode and the drain electrode are exposed through the via-holes ; and forming a second TCO, forming a second transparent electrode , a first connection electrode for connecting the source electrode to the doped region of the active layer , and a second connection electrode for connecting the drain electrode to the doped region of the active layer through patterning; wherein the first connection electrode and the second connection electrode are located in the via-holes . forming an active layer and a gate insulating layer successively on a base substrate of the array substrate; forming a first transparent conductive layer, TCO , and a metallic layer successively on the base substrate of the array substrate; forming a gate electrode , a source electrode , a drain electrode and a first transparent electrode by a plurality of patterning processes; forming a protective layer , wherein the active layer comprises a doped region ; forming via-holes in the protective layer respectively at locations corresponding to the doped region of the active layer , the source electrode and the drain electrode , wherein the doped region of the active layer , the source electrode and the drain electrode are exposed through the via-holes ; and forming a second TCO, forming a second transparent electrode , a first connection electrode for connecting the source electrode to the doped region of the active layer , and a second connection electrode for connecting the drain electrode to the doped region of the active layer through patterning; wherein the first connection electrode and the second connection electrode are located in the via-holes .
A radiation curable ink composition, comprising: (A) a mono-ethylenically unsaturated oligomer; (B) a mono-ethylenically unsaturated monomer; and (C) an acrylate ester of a carboxylic acid ester of formula (I) wherein R 1 , R 2 , and R 3 are each independently an alkyl, an aryl, an alkylaryl, an alkoxyaryl, or a cycloaliphatic group having 1 to 10 carbon atoms, and R 4 is a group selected from hydrogen, methyl, ethyl, propyl, butyl, pentyl, hexyl, heptyl, octyl, nonyl, decyl, phenyl, and alkoxy phenyl; wherein the radiation curable ink composition is free of a photoinitiator. (A) a mono-ethylenically unsaturated oligomer; (B) a mono-ethylenically unsaturated monomer; and (C) an acrylate ester of a carboxylic acid ester of formula (I) wherein R 1 , R 2 , and R 3 are each independently an alkyl, an aryl, an alkylaryl, an alkoxyaryl, or a cycloaliphatic group having 1 to 10 carbon atoms, and R 4 is a group selected from hydrogen, methyl, ethyl, propyl, butyl, pentyl, hexyl, heptyl, octyl, nonyl, decyl, phenyl, and alkoxy phenyl;
An agricultural baler , comprising: - a flywheel ; - a driveline associated with the flywheel and couplable with a power take-off (PTO) of a traction unit; - a movable component which is driven directly or indirectly by the driveline and movable in a linear manner; and - an auxiliary power system coupled with the movable component , said auxiliary power system including a power generation device for receiving power from the movable component and generating power, and a hydraulic accumulator coupled with and storing power from the power generation device ; characterized in that the power generation device includes a hydraulic cylinder assembly . - a flywheel ; - a driveline associated with the flywheel and couplable with a power take-off (PTO) of a traction unit; - a movable component which is driven directly or indirectly by the driveline and movable in a linear manner; and - an auxiliary power system coupled with the movable component , said auxiliary power system including a power generation device for receiving power from the movable component and generating power, and a hydraulic accumulator coupled with and storing power from the power generation device ; characterized in that the power generation device includes a hydraulic cylinder assembly .
A user equipment, comprising: a radio interface (11; 11, 17); and a processing device coupled to the radio interface (11; 11, 17) to control the radio interface (11; 11, 17), the processing device being operative to control a mode switching between a first mode in which the user equipment is configured for communication with a first cellular network and a second mode in which the user equipment is configured for communication with a second cellular network , the user equipment having a first power consumption when operating in the first mode and a second power consumption when operating in the second mode, the second power consumption being different from the first power consumption, characterized by the processing device being operative to control the user equipment to effect the mode switching between the first mode and the second mode in response to a trigger event. a radio interface (11; 11, 17); and a processing device coupled to the radio interface (11; 11, 17) to control the radio interface (11; 11, 17), the processing device being operative to control a mode switching between a first mode in which the user equipment is configured for communication with a first cellular network and a second mode in which the user equipment is configured for communication with a second cellular network , the user equipment having a first power consumption when operating in the first mode and a second power consumption when operating in the second mode, the second power consumption being different from the first power consumption, characterized by the processing device being operative to control the user equipment to effect the mode switching between the first mode and the second mode in response to a trigger event.
Method for adjusting a vehicle component, comprising the following steps: selecting a function of a control by a first operator action (S100), adjusting the vehicle component by a second operator action (S106) performed manually at the control, wherein the first operator action (S100) is effected by means of a voice input, a gesture and/or a glance, characterised in that a position in the vehicle from which the first operator action comes is determined and a vehicle component assigned to said position is adjusted with the second operator action. selecting a function of a control by a first operator action (S100), adjusting the vehicle component by a second operator action (S106) performed manually at the control, wherein the first operator action (S100) is effected by means of a voice input, a gesture and/or a glance, characterised in that a position in the vehicle from which the first operator action comes is determined and a vehicle component assigned to said position is adjusted with the second operator action.
A memory cell comprising: a first and a second electrode; a spin-orbit-torque, SOT, layer comprising first and second electrode contact portions arranged in contact with and above the first and the second electrodes, respectively, and an intermediate portion between the first and second electrode contact portions ; a first magnetic tunnel junction, MTJ, layer stack arranged in contact with and above the intermediate portion ; and a second MTJ layer stack arranged in contact with and above the second electrode contact portion ; a third MTJ layer stack arranged in contact with and above the first electrode contact portion ; wherein the second MTJ layer stack is arranged directly above the second electrode and the third MTJ layer stack is arranged directly above the first electrode . a first and a second electrode; a spin-orbit-torque, SOT, layer comprising first and second electrode contact portions arranged in contact with and above the first and the second electrodes, respectively, and an intermediate portion between the first and second electrode contact portions ; a first magnetic tunnel junction, MTJ, layer stack arranged in contact with and above the intermediate portion ; and a second MTJ layer stack arranged in contact with and above the second electrode contact portion ; a third MTJ layer stack arranged in contact with and above the first electrode contact portion ; wherein the second MTJ layer stack is arranged directly above the second electrode and the third MTJ layer stack is arranged directly above the first electrode .
An induction heating roller comprising: a coil ; a roller main body having an outer cylindrical part which is cylindrical in shape and is provided on an outer side in a radiation direction of the coil ; and a heat leveling member provided on the outer side in the radial direction of the coil and on an inner side in the radial direction of the outer cylindrical part and being in contact with an inner circumferential surface of the outer cylindrical part , heat conductivity of the heat leveling member being higher than heat conductivity of the outer cylindrical part in an axial direction, electric resistivity of the heat leveling member being higher than electric resistivity of the outer cylindrical part in a circumferential direction, and relative permeability of the heat leveling member being lower than relative permeability of the outer cylindrical part , characterised in that an eddy current flows in the outer cylindrical part in the circumferential direction. a coil ; a roller main body having an outer cylindrical part which is cylindrical in shape and is provided on an outer side in a radiation direction of the coil ; and a heat leveling member provided on the outer side in the radial direction of the coil and on an inner side in the radial direction of the outer cylindrical part and being in contact with an inner circumferential surface of the outer cylindrical part , heat conductivity of the heat leveling member being higher than heat conductivity of the outer cylindrical part in an axial direction, electric resistivity of the heat leveling member being higher than electric resistivity of the outer cylindrical part in a circumferential direction, and relative permeability of the heat leveling member being lower than relative permeability of the outer cylindrical part , characterised in that an eddy current flows in the outer cylindrical part in the circumferential direction.
A submersible pump comprising: a pump housing ; a motor disposed within the pump housing , the motor configured to power an impeller ; a float switch configured to control supply of power to the motor ; a float switch cable clip disposed at a fixed position relative to the pump housing ; a float switch cable ; characterized in that: the float switch cable comprises at least an operation region and a non-operation region; and a clip restrictor disposed in the non-operation region, wherein the clip restrictor prevents the float switch cable from being clipped in the non-operation region by the float switch cable clip ; wherein the float switch cable when clipped in the operation region by the float switch cable clip , leaves sufficient length of the float switch cable for the float switch to operate. a pump housing ; a motor disposed within the pump housing , the motor configured to power an impeller ; a float switch configured to control supply of power to the motor ; a float switch cable clip disposed at a fixed position relative to the pump housing ; a float switch cable ; characterized in that: the float switch cable comprises at least an operation region and a non-operation region; and a clip restrictor disposed in the non-operation region, wherein the clip restrictor prevents the float switch cable from being clipped in the non-operation region by the float switch cable clip ; wherein the float switch cable when clipped in the operation region by the float switch cable clip , leaves sufficient length of the float switch cable for the float switch to operate. the float switch cable comprises at least an operation region and a non-operation region; and a clip restrictor disposed in the non-operation region, wherein the clip restrictor prevents the float switch cable from being clipped in the non-operation region by the float switch cable clip ; wherein the float switch cable when clipped in the operation region by the float switch cable clip , leaves sufficient length of the float switch cable for the float switch to operate.
A device, comprising: a processor ; memory connected to the processor , the memory comprising instructions that when executed cause the device to: receive, from a server , a signed server key; reboot a first time; verify the signed server key in a DXE, driver execution environment, of the device's firmware ; send a nonce to the server , the nonce being encrypted by the signed server key; receive a message from the server that includes a first portion with a secure command and a second portion that is based on a hash of the nonce ; reboot a second time; verify the message in the DXE of the device's firmware ; and execute the secure command. a processor ; memory connected to the processor , the memory comprising instructions that when executed cause the device to: receive, from a server , a signed server key; reboot a first time; verify the signed server key in a DXE, driver execution environment, of the device's firmware ; send a nonce to the server , the nonce being encrypted by the signed server key; receive a message from the server that includes a first portion with a secure command and a second portion that is based on a hash of the nonce ; reboot a second time; verify the message in the DXE of the device's firmware ; and execute the secure command. receive, from a server , a signed server key; reboot a first time; verify the signed server key in a DXE, driver execution environment, of the device's firmware ; send a nonce to the server , the nonce being encrypted by the signed server key; receive a message from the server that includes a first portion with a secure command and a second portion that is based on a hash of the nonce ; reboot a second time; verify the message in the DXE of the device's firmware ; and execute the secure command.
A mounting device , comprising: a bracket that can be attached to or mounted on a vertical surface with one or more adhesive strips, the bracket including a backplate having opposed front and rear surfaces, a generally u-shaped apparatus including a generally horizontal plate providing its topmost surface, the generally horizontal plate extending outward from the front surface of the backplate ; and one or more mechanical features on the generally horizontal plate that prevent or minimize an item hung on the bracket from sliding horizontally off the bracket, wherein (a) the generally horizontal plate includes an outermost edge spaced from the front surface of the backplate , wherein the one or more mechanical features are located adjacent the outermost edge and wherein the one or more mechanical features are one tooth with a sharp bevelled edge, or (b) said one or more mechanical features are an attachment or fastening portion on said topmost surface wherein the attachment or fastening portion is at least one of an adhesive strip, an adhesive, a picture hanging strip, and/or a loop-engaging material. (a) the generally horizontal plate includes an outermost edge spaced from the front surface of the backplate , wherein the one or more mechanical features are located adjacent the outermost edge and wherein the one or more mechanical features are one tooth with a sharp bevelled edge, or (b) said one or more mechanical features are an attachment or fastening portion on said topmost surface wherein the attachment or fastening portion is at least one of an adhesive strip, an adhesive, a picture hanging strip, and/or a loop-engaging material.
A method for use by a wireless transmit/receive unit, WTRU, for uplink transmission, the method comprising: the WTRU transmitting, to a base station, a first type message, a second type message, and a third type message; wherein the first type message indicates that the WTRU has uplink buffered data available for transmission; wherein the second type message includes a plurality of indications, wherein each indication indicates an amount of uplink buffered data associated with at least one priority; wherein the third type message indicates an amount of uplink buffered data; the WTRU receiving, from the base station, in response to the transmitted first type message, the transmitted second type message, or the transmitted third type message, an uplink data scheduling message (215; 315); and the WTRU transmitting, to the base station, uplink data (220; 320) over an uplink channel based on the received uplink data scheduling message. the WTRU transmitting, to a base station, a first type message, a second type message, and a third type message; wherein the first type message indicates that the WTRU has uplink buffered data available for transmission; wherein the second type message includes a plurality of indications, wherein each indication indicates an amount of uplink buffered data associated with at least one priority; wherein the third type message indicates an amount of uplink buffered data; the WTRU receiving, from the base station, in response to the transmitted first type message, the transmitted second type message, or the transmitted third type message, an uplink data scheduling message (215; 315); and the WTRU transmitting, to the base station, uplink data (220; 320) over an uplink channel based on the received uplink data scheduling message.
A method for transmitting, by a user equipment, UE, a power headroom report, PHR, Medium Access Control Control Element, MAC CE, in a wireless communication system, the method comprising: receiving (S1610) configuration information related to PHR; determining (S1620) whether the PHR is triggered; and transmitting (S1630) the PHR MAC CE including information on a PH related to transmission power of an additional Sounding Reference Signal, SRS, wherein the additional SRS is configured in one or more symbols of a normal UL subframe which is different from a special subframe, and wherein the PHR MAC CE includes at least one of i) a first octet including a Type 3 PH field related to a primary cell, PCell, in which the additional SRS is configured and ii) at least one second octet including a Type 3 PH field related to each secondary cell, SCell, in which the additional SRS is configured. receiving (S1610) configuration information related to PHR; determining (S1620) whether the PHR is triggered; and transmitting (S1630) the PHR MAC CE including information on a PH related to transmission power of an additional Sounding Reference Signal, SRS, wherein the additional SRS is configured in one or more symbols of a normal UL subframe which is different from a special subframe, and wherein the PHR MAC CE includes at least one of i) a first octet including a Type 3 PH field related to a primary cell, PCell, in which the additional SRS is configured and ii) at least one second octet including a Type 3 PH field related to each secondary cell, SCell, in which the additional SRS is configured.
An orthopedic guidewire , comprising: an elongate guidewire body having longitudinally spaced proximal and distal guidewire ends; an engaging feature located at the distal guidewire end and configured to selectively engage a bone surface; and having a first diameter (D1) at a portion of the guidewire body proximally adjacent to the engaging feature and a second diameter (D2) at a portion of the guidewire body distally adjacent to the proximal guidewire end , the first diameter (D1) being greater than the second diameter (D2) wherein the first diameter (D1) is configured to abut the bone surface and prevent the guidewire from moving distally further into the bone surface when the engaging feature is fully engaged with the bone surface. an elongate guidewire body having longitudinally spaced proximal and distal guidewire ends; an engaging feature located at the distal guidewire end and configured to selectively engage a bone surface; and having a first diameter (D1) at a portion of the guidewire body proximally adjacent to the engaging feature and a second diameter (D2) at a portion of the guidewire body distally adjacent to the proximal guidewire end , the first diameter (D1) being greater than the second diameter (D2) wherein the first diameter (D1) is configured to abut the bone surface and prevent the guidewire from moving distally further into the bone surface when the engaging feature is fully engaged with the bone surface.
A process for producing an oral care composition comprising gingerdiol the process comprising the following steps: i) adding gingerdiol to a polyol or a polyol mixture comprising less than 5 wt% of the polyol mixture of water, to form a gingerdiol pre-mix in the form of a suspension or solution; ii) adding the resulting suspension or solution to a liquid base composition. i) adding gingerdiol to a polyol or a polyol mixture comprising less than 5 wt% of the polyol mixture of water, to form a gingerdiol pre-mix in the form of a suspension or solution; ii) adding the resulting suspension or solution to a liquid base composition.
A method for reducing the amount of data to be transferred when communicating visual data over a network from a first node to a second node, the method at the first node comprising the steps of: reducing the quality of one or more sections of higher-quality visual data to one or more sections of lower-quality visual data; selecting a neural network model from a library, the library comprising a plurality of neural network models which are respectively capable of receiving the one or more sections of lower-quality visual data and generating corresponding output data, the selection being based on the quality of the output data as determined by one or more metrics; generating , by a machine-learning process, a specific neural network model for increasing the quality of the one or more sections of lower-quality visual data, using the selected neural network model as an initial model, comprising training the selected neural network model with a machine learning technique using the one or more sections of higher-quality visual data; transmitting the one or more sections of lower-quality visual data to the second node, and transmitting to the second node a reference corresponding to the selected neural network model and modifications to the selected neural network model for reproducing the specific neural network model. reducing the quality of one or more sections of higher-quality visual data to one or more sections of lower-quality visual data; selecting a neural network model from a library, the library comprising a plurality of neural network models which are respectively capable of receiving the one or more sections of lower-quality visual data and generating corresponding output data, the selection being based on the quality of the output data as determined by one or more metrics; generating , by a machine-learning process, a specific neural network model for increasing the quality of the one or more sections of lower-quality visual data, using the selected neural network model as an initial model, comprising training the selected neural network model with a machine learning technique using the one or more sections of higher-quality visual data; transmitting the one or more sections of lower-quality visual data to the second node, and transmitting to the second node a reference corresponding to the selected neural network model and modifications to the selected neural network model for reproducing the specific neural network model.