mhurhangee/patent-ind-claim-en huggingface dataset:
A method for operating an adaptive microelectronic circuit, the performance of which can be configured by making an operating parameter assume an operating parameter value, the method comprising: - selectively setting the microelectronic circuit into a test mode that differs from a normal operating mode of the microelectronic circuit, - utilizing said test mode to input test input signals consisting of test input values into one or more adaptive processing paths within the microelectronic circuit, wherein an adaptive processing path comprises processing logic and register circuits configured to produce output values from input values input to them, and wherein the performance of such an adaptive processing path can be configured by making an operating parameter assume an operating parameter value, - making said one or more adaptive processing paths form test output values on the basis of the respective test input values input to them, and forming a set of test output signals by collecting said test output values given by said one or more adaptive processing paths, - examining said set of test output signals, and forming a test result on the basis of said examining, and - using said test result to select and set an operating parameter value for said operating parameter. - selectively setting the microelectronic circuit into a test mode that differs from a normal operating mode of the microelectronic circuit, - utilizing said test mode to input test input signals consisting of test input values into one or more adaptive processing paths within the microelectronic circuit, wherein an adaptive processing path comprises processing logic and register circuits configured to produce output values from input values input to them, and wherein the performance of such an adaptive processing path can be configured by making an operating parameter assume an operating parameter value, - making said one or more adaptive processing paths form test output values on the basis of the respective test input values input to them, and forming a set of test output signals by collecting said test output values given by said one or more adaptive processing paths, - examining said set of test output signals, and forming a test result on the basis of said examining, and - using said test result to select and set an operating parameter value for said operating parameter.
An in-vehicle computing system of a vehicle, the in-vehicle computing system comprising: a first network interface (306; 506) configured to communicate over a first wireless carrier being a Near Field Communication, NFC, carrier; a second network interface (308; 510) configured to communicate over a second wireless carrier; a processor configured to control communication via the first network and the second network; and a storage device storing instructions executable by the processor to: connect to a computing device (502; 704) over the first wireless carrier; the storage device storing further instructions executable by the processor to: send a select message (612b; 716) to the computing device (502; 704) via a remote server (611; 707), the remote server (611; 707) being a Simple NFC Data Exchange Format, NDEF, Exchange Protocol, SNEP, server, the select message being an NFC Data Exchange Format, NDEF, Handover Select message and identifying the second wireless carrier which is different from the first wireless carrier; receive a confirmation message from the computing device (502; 704) initiating communication (614; 718) over the second wireless carrier; and receive data (616; 720) from the computing device over the second wireless carrier. a first network interface (306; 506) configured to communicate over a first wireless carrier being a Near Field Communication, NFC, carrier; a second network interface (308; 510) configured to communicate over a second wireless carrier; a processor configured to control communication via the first network and the second network; and a storage device storing instructions executable by the processor to: connect to a computing device (502; 704) over the first wireless carrier; the storage device storing further instructions executable by the processor to: send a select message (612b; 716) to the computing device (502; 704) via a remote server (611; 707), the remote server (611; 707) being a Simple NFC Data Exchange Format, NDEF, Exchange Protocol, SNEP, server, the select message being an NFC Data Exchange Format, NDEF, Handover Select message and identifying the second wireless carrier which is different from the first wireless carrier; receive a confirmation message from the computing device (502; 704) initiating communication (614; 718) over the second wireless carrier; and receive data (616; 720) from the computing device over the second wireless carrier. send a select message (612b; 716) to the computing device (502; 704) via a remote server (611; 707), the remote server (611; 707) being a Simple NFC Data Exchange Format, NDEF, Exchange Protocol, SNEP, server, the select message being an NFC Data Exchange Format, NDEF, Handover Select message and identifying the second wireless carrier which is different from the first wireless carrier; receive a confirmation message from the computing device (502; 704) initiating communication (614; 718) over the second wireless carrier; and receive data (616; 720) from the computing device over the second wireless carrier.
A computer-implemented method for the qualitative evaluation of real-time PCR data (DT), wherein a real-time PCR amplification curve (K1) of an associated sample (P) is classified as a negative curve or as a positive curve, comprising - providing the real-time PCR amplification curve (K1) to be classified of the associated sample (P), - determining a quality metric (RG), which indicates a similarity of the real-time PCR amplification curve (K1) to be classified to a straight line (GER), as a quality metric of a linear regression with respect to the real-time PCR amplification curve (K1) to be classified, - determining a first criterion by checking whether the quality metric (RG) of the linear regression falls below the first predefined value (VW1), - determining a value sequence (MK1'), which indicates a slope of the real-time PCR amplification curve (K1) to be classified, and determining a second criterion as to whether the value sequence (MK1') exceeds a second predefined value (VW2), - classifying the real-time PCR amplification curve (K1) of the associated sample (P) as a positive curve in the case that all criteria are met. - providing the real-time PCR amplification curve (K1) to be classified of the associated sample (P), - determining a quality metric (RG), which indicates a similarity of the real-time PCR amplification curve (K1) to be classified to a straight line (GER), as a quality metric of a linear regression with respect to the real-time PCR amplification curve (K1) to be classified, - determining a first criterion by checking whether the quality metric (RG) of the linear regression falls below the first predefined value (VW1), - determining a value sequence (MK1'), which indicates a slope of the real-time PCR amplification curve (K1) to be classified, and determining a second criterion as to whether the value sequence (MK1') exceeds a second predefined value (VW2), - classifying the real-time PCR amplification curve (K1) of the associated sample (P) as a positive curve in the case that all criteria are met.
A power cable comprising a polypropylene resin in an insulating layer, which resin is an ethylene-propylene block copolymer prepared by polymerization of (a) propylene homopolymer or ethylene-propylene random copolymer, and (b) propylene rubber copolymer, wherein a difference (Tm-Tc) between a melting temperature (Tm) of the ethylene-propylene block copolymer and a crystallization temperature (Tc) is 45°C or less, the size of the rubber copolymer in a dispersed phase is 0.5 μm or less, and the ethylene-propylene rubber copolymer (b) is contained in an amount of 30∼50 wt% based on the total weight of the ethylene-propylene block copolymer.
An isolated antibody, or an antigen-binding portion thereof, that binds to LY75, said antibody comprising: a) a heavy chain variable region comprising: i) a first vhCDR comprising SEQ ID NO: 5; ii) a second vhCDR comprising SEQ ID NO: 6; and iii) a third vhCDR comprising SEQ ID NO: 7; and b) a light chain variable region comprising: i) a first vICDR comprising SEQ ID NO: 8; ii) a second vICDR comprising SEQ ID NO: 9; and iii) a third vICDR comprising SEQ ID NO: 10, wherein any one or more of the above SEQ ID NOs independently comprise one or two amino acid substitutions and wherein the antibody is internalized. a) a heavy chain variable region comprising: i) a first vhCDR comprising SEQ ID NO: 5; ii) a second vhCDR comprising SEQ ID NO: 6; and iii) a third vhCDR comprising SEQ ID NO: 7; and i) a first vhCDR comprising SEQ ID NO: 5; ii) a second vhCDR comprising SEQ ID NO: 6; and iii) a third vhCDR comprising SEQ ID NO: 7; and b) a light chain variable region comprising: i) a first vICDR comprising SEQ ID NO: 8; ii) a second vICDR comprising SEQ ID NO: 9; and iii) a third vICDR comprising SEQ ID NO: 10, wherein any one or more of the above SEQ ID NOs independently comprise one or two amino acid substitutions and wherein the antibody is internalized. i) a first vICDR comprising SEQ ID NO: 8; ii) a second vICDR comprising SEQ ID NO: 9; and iii) a third vICDR comprising SEQ ID NO: 10,
Green paper for producing a gas diffusion layer (GDL) for a fuel cell, wherein the green paper has at least one first paper web, in which at least one watermark is made, where the watermark forms a patterning for the flow field of the gas diffusion layer (GDL) produced from the green paper.
A prefabricated shelf, comprising: a first frame in which a pair of assembly holes , each having a wide portion and a narrow portion , are arranged left-right symmetrically; and a second frame in which a pair of assembly protrusions , corresponding to the pair of assembly holes and each protruding to fit into the narrow portion , are arranged left-right symmetrically, wherein the narrow portion comprises a pressing protrusion portion configured to protrude from a first end thereof and press the assembly protrusion to a second side thereof to force the assembly protrusion into place; and wherein the pressing protrusion portion consists of a pair of pressing protrusions arranged apart up and down, and wherein the assembly protrusion comprises a fixing protrusion portion fitted into a fixing groove located between the pair of pressing protrusions , characterized in that the assembly protrusion , upper and lower surfaces of a fitting portion are connected to each other in a downward slope at a predetermined slightly-tilted angle toward the fixing protrusion portion with respect to the fixing protrusion portion , so that an upper support surface of the fitting portion , the fixing protrusion portion , and a lower support surface of the fitting portion are connected in a zigzaged manner. a first frame in which a pair of assembly holes , each having a wide portion and a narrow portion , are arranged left-right symmetrically; and a second frame in which a pair of assembly protrusions , corresponding to the pair of assembly holes and each protruding to fit into the narrow portion , are arranged left-right symmetrically, wherein the narrow portion comprises a pressing protrusion portion configured to protrude from a first end thereof and press the assembly protrusion to a second side thereof to force the assembly protrusion into place; and wherein the pressing protrusion portion consists of a pair of pressing protrusions arranged apart up and down, and wherein the assembly protrusion comprises a fixing protrusion portion fitted into a fixing groove located between the pair of pressing protrusions , characterized in that the assembly protrusion , upper and lower surfaces of a fitting portion are connected to each other in a downward slope at a predetermined slightly-tilted angle toward the fixing protrusion portion with respect to the fixing protrusion portion , so that an upper support surface of the fitting portion , the fixing protrusion portion , and a lower support surface of the fitting portion are connected in a zigzaged manner.
Method for producing a multilayer laminar product , comprising the following operations: - providing a laminar support , said laminar support being a leather or a fabric; - covering a first face of said laminar support with a first covering layer in a polymer resin, said covering operation providing for covering said first face with an amount of said first covering layer between 22 and 215 grams per square meter (2 and 20 grams per square foot), more preferably said amount being between 75 and 129 grams per square meter (7 and 12 grams per square foot); - consolidating, at least partially, said first covering layer , said consolidation step providing for reducing the weight per square foot of said first covering layer downstream of said consolidation by a percentage between 35% and 55% with respect to the weight per square foot of said first covering layer upstream of said consolidation; - providing a laminar element above said first covering layer , said laminar element being of a material chosen from polyethylene, nylon or polyester with a thickness between 5 microns and 50 microns, even more preferably between 8 microns and 30 microns, specifically with a thickness equal to 15 microns, said laminar element having a smooth surface, - pushing an embossed surface against said first covering layer with interposition of said laminar element to imprint on said first covering layer the pattern of said embossed surface ; - after imprinting said pattern, causing the polymerization of said first covering layer to obtain a stabilized covering layer , characterized in that said laminar element is free of any protective film at its surface adapted to be facing said first covering layer. - providing a laminar support , said laminar support being a leather or a fabric; - covering a first face of said laminar support with a first covering layer in a polymer resin, said covering operation providing for covering said first face with an amount of said first covering layer between 22 and 215 grams per square meter (2 and 20 grams per square foot), more preferably said amount being between 75 and 129 grams per square meter (7 and 12 grams per square foot); - consolidating, at least partially, said first covering layer , said consolidation step providing for reducing the weight per square foot of said first covering layer downstream of said consolidation by a percentage between 35% and 55% with respect to the weight per square foot of said first covering layer upstream of said consolidation; - providing a laminar element above said first covering layer , said laminar element being of a material chosen from polyethylene, nylon or polyester with a thickness between 5 microns and 50 microns, even more preferably between 8 microns and 30 microns, specifically with a thickness equal to 15 microns, said laminar element having a smooth surface, - pushing an embossed surface against said first covering layer with interposition of said laminar element to imprint on said first covering layer the pattern of said embossed surface ; - after imprinting said pattern, causing the polymerization of said first covering layer to obtain a stabilized covering layer ,
A device for determining an operating related parameter of a wire comprising: - a body defined by an external perimeter and an internal perimeter and having a first empty space within the body , wherein the body is made of a flexible material, wherein a wire is allowable to pass through the internal perimeter , the first empty space is adapted to be filled with a gas for expanding the body such that the body forms grip onto the wire; - a valve adapted to be opened to allow flow of the gas out of the body ; - a gas container comprising a second empty space and a vibration element , wherein the gas is allowed to flow in the second empty space when the valve opens and to actuate the vibration element ; - a vibration sensor adapted to sense a first vibration from the vibration element and to generate a first vibration value ; and - a processor adapted to receive and process the first vibration value and to determine a cross-section of the wire . - a body defined by an external perimeter and an internal perimeter and having a first empty space within the body , wherein the body is made of a flexible material, wherein a wire is allowable to pass through the internal perimeter , the first empty space is adapted to be filled with a gas for expanding the body such that the body forms grip onto the wire; - a valve adapted to be opened to allow flow of the gas out of the body ; - a gas container comprising a second empty space and a vibration element , wherein the gas is allowed to flow in the second empty space when the valve opens and to actuate the vibration element ; - a vibration sensor adapted to sense a first vibration from the vibration element and to generate a first vibration value ; and - a processor adapted to receive and process the first vibration value and to determine a cross-section of the wire .
A rotation driving mechanism for realizing a head-shaking function of an air supply apparatus , comprising: a fixed bracket ; a rotary bracket , wherein the rotary bracket is sleeved on the fixed bracket and is rotatable with respect to the fixed bracket ; and a driving member , wherein the driving member is provided on the fixed bracket , and the driving member drives the rotary bracket to rotate; and a first transmission member , the rotary bracket being provided with a second transmission member drivingly coordinating with the first transmission member , and the first transmission member being connected to a driving shaft of the driving member , wherein the fixed bracket comprises a body portion , the body portion defines a mounting groove , a side wall of the mounting groove has a first through hole , the first transmission member is located in the mounting groove , and the first transmission member drivingly coordinates with the second transmission member via the first through hole ; characterized in that the rotation driving mechanism further comprises: a damper , wherein the side wall of the mounting groove has a second through hole , the damper is provided on the fixed bracket and is located in the mounting groove , and the damper drivingly coordinates with the second transmission member via the second through hole . a fixed bracket ; a rotary bracket , wherein the rotary bracket is sleeved on the fixed bracket and is rotatable with respect to the fixed bracket ; and a driving member , wherein the driving member is provided on the fixed bracket , and the driving member drives the rotary bracket to rotate; and a first transmission member , the rotary bracket being provided with a second transmission member drivingly coordinating with the first transmission member , and the first transmission member being connected to a driving shaft of the driving member , wherein the fixed bracket comprises a body portion , the body portion defines a mounting groove , a side wall of the mounting groove has a first through hole , the first transmission member is located in the mounting groove , and the first transmission member drivingly coordinates with the second transmission member via the first through hole ;
A method of preparing a positive electrode active material, comprising steps of: (A) preparing a lithium transition metal oxide; and (B) mixing the lithium transition metal oxide and a rinsing solution and performing rinsing and drying, wherein the rinsing solution includes one or more additives selected from among LiOH, NaOH, and KOH, the additive is included in an amount of 3,000 ppm to 18,000 ppm relative to the lithium transition metal oxide in the rinsing solution, and the rinsing solution has a pH of 12 or more. (A) preparing a lithium transition metal oxide; and (B) mixing the lithium transition metal oxide and a rinsing solution and performing rinsing and drying, wherein the rinsing solution includes one or more additives selected from among LiOH, NaOH, and KOH, the additive is included in an amount of 3,000 ppm to 18,000 ppm relative to the lithium transition metal oxide in the rinsing solution, and the rinsing solution has a pH of 12 or more.
A display device , comprising: a display ; a speaker ; a communicator comprising communication circuitry configured to perform wireless communication; a memory configured to store one or more instructions; and a controller comprising at least one processor configured to execute at least one of the one or more instructions, wherein, the communicator is further configured to: in response to a wireless connection request being received from an external device while the controller is in a first power state in which the display is in a screen-off state, transmit, to the external device , a response indicating acceptance of the wireless connection request for transmission of audio from the external device for output by the display device, control the controller to switch a power state from the first power state to a second power state, and transmit, to the controller, information associated with the external device such that after the controller is switched to the second power state, the controller is configured to cause the communicator to establish a wireless connection with the external device based on the information associated with the external device. a display ; a speaker ; a communicator comprising communication circuitry configured to perform wireless communication; a memory configured to store one or more instructions; and a controller comprising at least one processor configured to execute at least one of the one or more instructions, wherein, the communicator is further configured to: in response to a wireless connection request being received from an external device while the controller is in a first power state in which the display is in a screen-off state, transmit, to the external device , a response indicating acceptance of the wireless connection request for transmission of audio from the external device for output by the display device, control the controller to switch a power state from the first power state to a second power state, and transmit, to the controller, information associated with the external device such that after the controller is switched to the second power state, the controller is configured to cause the communicator to establish a wireless connection with the external device based on the information associated with the external device. in response to a wireless connection request being received from an external device while the controller is in a first power state in which the display is in a screen-off state, transmit, to the external device , a response indicating acceptance of the wireless connection request for transmission of audio from the external device for output by the display device, control the controller to switch a power state from the first power state to a second power state, and transmit, to the controller, information associated with the external device such that after the controller is switched to the second power state, the controller is configured to cause the communicator to establish a wireless connection with the external device based on the information associated with the external device.