mhurhangee/patent-ind-claim-en huggingface dataset:
A positive electrode sheet, comprising a positive electrode current collector , a safe coating layer , and a positive electrode active material layer ; the safe coating layer is coated on a surface of the positive electrode current collector , the positive electrode active material layer is coated on a surface of the safe coating layer ; wherein the safe coating layer comprises a first positive electrode active material, a first conductive agent, and a first binder; the first positive electrode active material comprises a high nickel ternary positive electrode material and a lithium cobaltate material; a mass ratio of the high nickel ternary positive electrode material to the lithium cobaltate material is 1: (0.25-1); the lithium cobaltate material has a median particle diameter D 50 of 3-6 μm; the high nickel ternary positive electrode material has a median particle diameter D 50 of 4-5 μm; a molecular weight of the first binder is greater than a molecular weight of a second binder in the positive electrode active material layer; the safe coating layer has a thickness of 5-25 μm. wherein the safe coating layer comprises a first positive electrode active material, a first conductive agent, and a first binder; the first positive electrode active material comprises a high nickel ternary positive electrode material and a lithium cobaltate material; a mass ratio of the high nickel ternary positive electrode material to the lithium cobaltate material is 1: (0.25-1); the lithium cobaltate material has a median particle diameter D 50 of 3-6 μm; the high nickel ternary positive electrode material has a median particle diameter D 50 of 4-5 μm; a molecular weight of the first binder is greater than a molecular weight of a second binder in the positive electrode active material layer; the safe coating layer has a thickness of 5-25 μm.
A processor configured to control a user terminal in a mobile communication system that supports D2D communication that is direct device-to-device communication, the processor being configured to control the user terminal to: transmit D2D capability information to a base station , the D2D capability information indicating that the user terminal supports the D2D communication using the uplink in a predetermined band.
Resonance method for a vibration system for the resonant vibration of an excitation unit with a vibrating mass , having the steps - deflection detection of a deflection (x) of the vibrating mass , wherein a deflection signal is detected by a deflection measuring apparatus for deflection detection and the deflection signal is corrected by a DC component relative to the vibrating mass as a function of the installation location of the deflection measuring apparatus , wherein the DC component is predetermined by a DC component parameter or determined by a DC component high-pass filter , - velocity formation of a velocity (v) of the vibrating mass by means of differentiating the deflection (x), - phase position generation of a mechanical phase position (Θ m ) by means of the deflection (x) and the velocity (v), - phase position correction of the mechanical phase position (Θ m ) by means of a correction value (k Θ ) to form a corrected phase position (Θ k ), - frequency formation of an electrical angular frequency (ω el ) by means of at least one P-regulation on the basis of the corrected phase position (Θ k ), - phase position formation of an electrical phase position (Θ el ) by means of integration on the basis of the electrical angular frequency (ω el ), - factor formation of a correction factor (k F ) by means of a trigonometric function on the basis of the electrical phase position (Θ el ) and - setpoint value application of the correction factor (k F ) to an excitation setpoint value in order to generate a corrected excitation setpoint value . - deflection detection of a deflection (x) of the vibrating mass , wherein a deflection signal is detected by a deflection measuring apparatus for deflection detection and the deflection signal is corrected by a DC component relative to the vibrating mass as a function of the installation location of the deflection measuring apparatus , wherein the DC component is predetermined by a DC component parameter or determined by a DC component high-pass filter , - velocity formation of a velocity (v) of the vibrating mass by means of differentiating the deflection (x), - phase position generation of a mechanical phase position (Θ m ) by means of the deflection (x) and the velocity (v), - phase position correction of the mechanical phase position (Θ m ) by means of a correction value (k Θ ) to form a corrected phase position (Θ k ), - frequency formation of an electrical angular frequency (ω el ) by means of at least one P-regulation on the basis of the corrected phase position (Θ k ), - phase position formation of an electrical phase position (Θ el ) by means of integration on the basis of the electrical angular frequency (ω el ), - factor formation of a correction factor (k F ) by means of a trigonometric function on the basis of the electrical phase position (Θ el ) and - setpoint value application of the correction factor (k F ) to an excitation setpoint value in order to generate a corrected excitation setpoint value .
Shower head , having a shower housing with at least one flow channel , wherein the at least one flow channel has a nozzle by which a partial vacuum can be created when water flows through the at least one flow channel , so that air can be drawn into the at least one flow channel via a channel , characterised in that the at least one flow channel is closable, so that the water can be conducted out of the at least one flow channel via the channel .
A method for metering oil flow to a propeller of an engine , the method comprising: using a processing unit for: receiving a requested propeller speed and an actual propeller speed; generating an oil flow request based on a difference between the requested propeller speed and the actual propeller speed; determining a leakage flow rate as a function of parameters of the engine and the propeller and generating a leakage compensation component; combining the leakage compensation component with the oil flow request to obtain a compensated oil flow request; and outputting the compensated oil flow request to an oil metering unit of the propeller to meter the oil flow to the propeller . receiving a requested propeller speed and an actual propeller speed; generating an oil flow request based on a difference between the requested propeller speed and the actual propeller speed; determining a leakage flow rate as a function of parameters of the engine and the propeller and generating a leakage compensation component; combining the leakage compensation component with the oil flow request to obtain a compensated oil flow request; and outputting the compensated oil flow request to an oil metering unit of the propeller to meter the oil flow to the propeller .
A writing instrument comprising a casing and a capsule arranged for receiving a clock movement , said capsule comprising a body defining an interior housing for receiving said clock movement , the body being provided at one of its ends with a back with fixing means for securing the capsule to one end of the casing , the back being fixed to the body of the capsule at a central axis centred on the axis of revolution of the casing , the fixing means comprising at least two screws arranged to be screwed from the end of the casing into corresponding screw feet integral with the back of the capsule , so that the capsule is unremovable from the outside of the writing instrument , characterised in that each screw foot comprises a head and a body , the head resting against the back of the capsule , inside said capsule , the body of each screw foot projecting from the back of the capsule , towards the outside of the capsule , and cooperates with a corresponding housing formed in said end of the casing , and in that the central axis is provided on its periphery with at least two notches , each notch having a shape complementary to that of one of said screw-foot heads , each screw-foot head being housed in a corresponding notch of the central axis .
A microphone comprising: a head , the head including a cartridge ; a microphone body supporting the head; a sleeve connected to the microphone body, the sleeve comprising: an outer shell ; a cavity formed within the outer shell; a first keyway formed on an inner surface of the outer shell; a first electrical block positioned within the cavity, the first electrical block comprising an array of contact positions configured to house a plurality of electrical contacts , wherein the array is a rectangular array and comprises ten contact positions arranged in a 2 by 5 matrix; a first protrusion extending from the inner surface of the outer shell, the first protrusion proximate a first end of the first electrical block; and a second protrusion extending from the inner surface of the outer shell, the second protrusion proximate a second end of the first electrical block, wherein the first and second protrusions are diametrically opposed on the outer shell. a head , the head including a cartridge ; a microphone body supporting the head; a sleeve connected to the microphone body, the sleeve comprising: an outer shell ; a cavity formed within the outer shell; a first keyway formed on an inner surface of the outer shell; a first electrical block positioned within the cavity, the first electrical block comprising an array of contact positions configured to house a plurality of electrical contacts , wherein the array is a rectangular array and comprises ten contact positions arranged in a 2 by 5 matrix; a first protrusion extending from the inner surface of the outer shell, the first protrusion proximate a first end of the first electrical block; and a second protrusion extending from the inner surface of the outer shell, the second protrusion proximate a second end of the first electrical block, wherein the first and second protrusions are diametrically opposed on the outer shell. an outer shell ; a cavity formed within the outer shell; a first keyway formed on an inner surface of the outer shell; a first electrical block positioned within the cavity, the first electrical block comprising an array of contact positions configured to house a plurality of electrical contacts , wherein the array is a rectangular array and comprises ten contact positions arranged in a 2 by 5 matrix; a first protrusion extending from the inner surface of the outer shell, the first protrusion proximate a first end of the first electrical block; and a second protrusion extending from the inner surface of the outer shell, the second protrusion proximate a second end of the first electrical block, wherein the first and second protrusions are diametrically opposed on the outer shell.
A process of forming an overmolded lead frame assembly for a pressure sensing application, the process comprising: performing a primary overmolding operation that includes overmolding a frontside and a backside of a lead frame with a first mold while clamping the lead frame at both the frontside and the backside of a wire bonding area (220-226) on the lead frame, wherein clamping the lead frame at the wire bonding area (220-226) prevents the frontside and the backside of the wire bonding area (220-226) from being covered by the first mold during the primary overmolding operation and creates: an electronics cavity that provides an opening within the first mold that exposes the frontside of the wire bonding area for subsequent wire-bonding of a microelectromechanical system (MEMS) pressure sensing element to the frontside of the wire bonding area; and a pressure through-hole for placement of the MEMS pressure sensing element; and performing a secondary overmolding operation that includes overmolding, with a second mold , a portion of a backside of the first mold and the backside of the wire bonding area (220-226) that was prevented from being covered by the first mold , by clamping the frontside and the backside of the wire bonding area during the primary overmolding operation, while preventing the pressure through-hole from being covered by the second mold during the secondary overmolding operation. performing a primary overmolding operation that includes overmolding a frontside and a backside of a lead frame with a first mold while clamping the lead frame at both the frontside and the backside of a wire bonding area (220-226) on the lead frame, wherein clamping the lead frame at the wire bonding area (220-226) prevents the frontside and the backside of the wire bonding area (220-226) from being covered by the first mold during the primary overmolding operation and creates: an electronics cavity that provides an opening within the first mold that exposes the frontside of the wire bonding area for subsequent wire-bonding of a microelectromechanical system (MEMS) pressure sensing element to the frontside of the wire bonding area; and a pressure through-hole for placement of the MEMS pressure sensing element; and an electronics cavity that provides an opening within the first mold that exposes the frontside of the wire bonding area for subsequent wire-bonding of a microelectromechanical system (MEMS) pressure sensing element to the frontside of the wire bonding area; and a pressure through-hole for placement of the MEMS pressure sensing element; and performing a secondary overmolding operation that includes overmolding, with a second mold , a portion of a backside of the first mold and the backside of the wire bonding area (220-226) that was prevented from being covered by the first mold , by clamping the frontside and the backside of the wire bonding area during the primary overmolding operation, while preventing the pressure through-hole from being covered by the second mold during the secondary overmolding operation.
A method performed by an Access and Mobility Management Function, AMF for handling handover, the method comprising: receiving one of: a handover required message and a first request message, wherein the handover required message is received from a Source-Radio Access Network, S-RAN, and the first request message is received from another AMF in response to the handover required message transmitted by the S-RAN ; sending to a Session Management Function, SMF, a set of one or more first Protocol Data Unit, PDU, request messages; activating a timer; determining whether at least one of the following is true: a certain amount of time has elapsed since the timer was activated and the AMF has received a first PDU response message for each one of the first PDU request messages sent to the SMF ; and transmitting a handover request message to a Target-Radio Access Network, T-RAN, as a result of determining that at least one of the conditions is true. receiving one of: a handover required message and a first request message, wherein the handover required message is received from a Source-Radio Access Network, S-RAN, and the first request message is received from another AMF in response to the handover required message transmitted by the S-RAN ; sending to a Session Management Function, SMF, a set of one or more first Protocol Data Unit, PDU, request messages; activating a timer; determining whether at least one of the following is true: a certain amount of time has elapsed since the timer was activated and the AMF has received a first PDU response message for each one of the first PDU request messages sent to the SMF ; and transmitting a handover request message to a Target-Radio Access Network, T-RAN, as a result of determining that at least one of the conditions is true.
Independently manageable display panel having a flexurally rigid, plate-like carrier part as a support for an information element , the display panel having a wirelessly controllable display and the carrier part having a front side forming a visible outer side and a rear side, the carrier part having a window-like aperture , and the display being visible through or in the aperture , characterized in that the display panel has a side length of 10 cm or more, that, furthermore, on the rear side of the carrier part , outside the aperture , there is arranged a holding element for the display , on which the display is held in an exchangeable manner, the display being fixed on the carrier part by means of the holding element by means of a plug-in or slide-in connection, and in that the holding element itself is connected to the carrier part in a fixed manner, such that it can be lifted only by destruction.
A networked media station, NMS, configured to: establish a first connection with a first media source; publish, to the first media source, capabilities of a multimedia output device connected to the NMS; in response to the publishing of the capabilities, receive, from the first media source, multimedia content; and forward the multimedia content to the multimedia output device, characterized in that , upon completion of receiving the multimedia content from the first media source, the NMS is further configured to: maintain the first connection in an idle state that allows additional content to be routed from the first media source; detect an attempt to establish a second connection with a second media source; terminate the first connection with the first media source; and establish the second connection with the second media source. establish a first connection with a first media source; publish, to the first media source, capabilities of a multimedia output device connected to the NMS; in response to the publishing of the capabilities, receive, from the first media source, multimedia content; and forward the multimedia content to the multimedia output device, characterized in that , upon completion of receiving the multimedia content from the first media source, the NMS is further configured to: maintain the first connection in an idle state that allows additional content to be routed from the first media source; detect an attempt to establish a second connection with a second media source; terminate the first connection with the first media source; and establish the second connection with the second media source. maintain the first connection in an idle state that allows additional content to be routed from the first media source; detect an attempt to establish a second connection with a second media source; terminate the first connection with the first media source; and establish the second connection with the second media source.
A method for detecting a parking spot in a camera image, comprising: obtaining one or more camera images from one or more vehicle cameras, wherein the one or more camera images comprise one or more of a front camera image, a left-side camera image , a right-side camera image , and a rear camera image; preprocessing the one or more camera images by transforming the one or more camera images into a bird's-eye-view camera image ; segmenting a plurality of parking line markers from the bird's-eye-view camera image using a deep neural network and outputting a binary image distinguishing connected pixel groups from other portions of the image and performing line fitting in each pixel group; iteratively selecting each line and pairing it with other lines to detect a parking spot in one or more of the bird's-eye-view camera image and the one or more camera images by comparing a difference between slopes of the two lines with a threshold slope, and if the difference in slope is lower than the threshold slope, comparing a distance between the two lines with a threshold for the parking stop distance; determining that the selected and paired lines are associated with a parking spot if the distance is below the threshold for the parking spot distance; and comparing if a new parking spot associated with the selected line is located in the same direction as one already obtained for the selected line and has smaller distance; in such case keeping the new parking spot as parking spot for the selected line in that direction. obtaining one or more camera images from one or more vehicle cameras, wherein the one or more camera images comprise one or more of a front camera image, a left-side camera image , a right-side camera image , and a rear camera image; preprocessing the one or more camera images by transforming the one or more camera images into a bird's-eye-view camera image ; segmenting a plurality of parking line markers from the bird's-eye-view camera image using a deep neural network and outputting a binary image distinguishing connected pixel groups from other portions of the image and performing line fitting in each pixel group; iteratively selecting each line and pairing it with other lines to detect a parking spot in one or more of the bird's-eye-view camera image and the one or more camera images by comparing a difference between slopes of the two lines with a threshold slope, and if the difference in slope is lower than the threshold slope, comparing a distance between the two lines with a threshold for the parking stop distance; determining that the selected and paired lines are associated with a parking spot if the distance is below the threshold for the parking spot distance; and comparing if a new parking spot associated with the selected line is located in the same direction as one already obtained for the selected line and has smaller distance; in such case keeping the new parking spot as parking spot for the selected line in that direction.
A radio terminal comprising: means for connecting to both of first and second base stations , and for performing a dual connectivity communication in which the radio terminal simultaneously communicates with the first and second base stations ; means for receiving, from the first base station , control information related to radio resources in the second base station , after the dual connectivity communication is started; and means for performing radio communications with the second base station using the control information received from the first base station , in the dual connectivity communication, wherein in the dual connectivity communication, the radio terminal uses radio resources determined by a first scheduler in the first base station and radio resources determined by a second scheduler in the second base station . means for connecting to both of first and second base stations , and for performing a dual connectivity communication in which the radio terminal simultaneously communicates with the first and second base stations ; means for receiving, from the first base station , control information related to radio resources in the second base station , after the dual connectivity communication is started; and means for performing radio communications with the second base station using the control information received from the first base station , in the dual connectivity communication, wherein in the dual connectivity communication, the radio terminal uses radio resources determined by a first scheduler in the first base station and radio resources determined by a second scheduler in the second base station .