mhurhangee/patent-ind-claim-en huggingface dataset:
An integrated circuit comprising: an input terminal configured to receive a failure-event-signal representative of a failure event; a first output terminal configured to provide a first-failure-signal ; the integrated circuit is characterized by a second output terminal configured to provide a second-failure-signal ; and a processing block configured to: set the first-failure-signal based on the failure-event-signal; and set the second-failure-signal, at a predetermined time interval after the first-failure-signal is set, wherein the processing block further comprises a switch configured selectively, based on a received digital-error-signal to either: set the second-failure-signal based on a digital-counter-output-signal; or set the second-failure-signal based on an analogue-trigger-signal. an input terminal configured to receive a failure-event-signal representative of a failure event; a first output terminal configured to provide a first-failure-signal ; the integrated circuit is characterized by a second output terminal configured to provide a second-failure-signal ; and a processing block configured to: set the first-failure-signal based on the failure-event-signal; and set the second-failure-signal, at a predetermined time interval after the first-failure-signal is set, set the first-failure-signal based on the failure-event-signal; and set the second-failure-signal, at a predetermined time interval after the first-failure-signal is set, wherein the processing block further comprises a switch configured selectively, based on a received digital-error-signal to either: set the second-failure-signal based on a digital-counter-output-signal; or set the second-failure-signal based on an analogue-trigger-signal. set the second-failure-signal based on a digital-counter-output-signal; or set the second-failure-signal based on an analogue-trigger-signal.
A polymer comprising at least one residue having a structure represented by a formula: wherein n is greater than 5; wherein each R 1 is independently hydrogen, C1-C4 alkyl, CH 2 Ar 1 , or Ar 1 ; and wherein each Ar 1 , when present, is aryl substituted with 0, 1, or 2 groups independently selected from halogen, -OH, —CN, -N 3 , -NH 2 , C1-C4 alkyl, C1-C4 alkoxy, C1-C4 monohaloalkyl, C1-C4 polyhaloalkyl, C1-C4 alkylamino, and C1-C4 dialkylamino. wherein n is greater than 5; wherein each R 1 is independently hydrogen, C1-C4 alkyl, CH 2 Ar 1 , or Ar 1 ; and
Cooking appliance for processing food, of the type that include a body housing an electric motor, a shaft for actuating a processing tool, and an integral handle, coupling several processing tools to the body by means of an arm integrating an implement, such as a grinding, whisking or mixing implement, wherein the appliance includes a sensor control system based on gyroscopic and accelerometer sensors that respond to physical movement stimuli instead of traditional control means such as buttons or dials, that capture parameters of the device movement performed by the user, and transmit this information to a microcontroller in order to detect a characteristic or predetermined movement performed on the appliance, the microcontroller interpreting said movement as an operating instruction, and a control system for the motor associated with the microcontroller characterized in that said captured parameters are changes in the speed and angular velocity in three spatial axes.
A method of operating of a user equipment, UE, the UE having a processor including a plurality of cores (1291, 129-2, 129-3, 129-4), the plurality of cores including a first core and remaining cores, comprising: determining a temperature of the first core of the plurality of cores, the first core processing a load; in response to determining that the temperature of the first core is greater than a pre-mitigation temperature threshold and not greater than a mitigation temperature threshold, the mitigation temperature threshold being greater than the pre-mitigation temperature threshold, determining a temperature of a second core of the remaining cores; transferring at least a portion of the load, but not all the load, of the first core to the second core in response to determining that the temperature of the second core is greater than a load-sharing temperature threshold, the load-sharing temperature threshold being less than the pre-mitigation temperature threshold; and transferring all the load of the first core to the second core in response to determining that the temperature of the second core is less than the load-sharing temperature threshold. determining a temperature of the first core of the plurality of cores, the first core processing a load; in response to determining that the temperature of the first core is greater than a pre-mitigation temperature threshold and not greater than a mitigation temperature threshold, the mitigation temperature threshold being greater than the pre-mitigation temperature threshold, determining a temperature of a second core of the remaining cores; transferring at least a portion of the load, but not all the load, of the first core to the second core in response to determining that the temperature of the second core is greater than a load-sharing temperature threshold, the load-sharing temperature threshold being less than the pre-mitigation temperature threshold; and transferring all the load of the first core to the second core in response to determining that the temperature of the second core is less than the load-sharing temperature threshold.
A method of transmitting a pilot on a downlink in a wireless multi-carrier communication system comprising: generating pilot symbols for transmission on a first set of subbands, wherein the first set of subbands is used for pilot transmission by a first transmitting entity and is disjoint from a second set of subbands used for pilot transmission by a second transmitting entity, and wherein each pair of adjacent subbands in the first set encompasses a frequency span that is less than or equal to a coherence bandwidth of a wireless channel in the system; processing the pilot symbols to obtain a pilot signal having the pilot symbols included in the first set of subbands; and transmitting the pilot signal from the first transmitting entity. generating pilot symbols for transmission on a first set of subbands, wherein the first set of subbands is used for pilot transmission by a first transmitting entity and is disjoint from a second set of subbands used for pilot transmission by a second transmitting entity, and wherein each pair of adjacent subbands in the first set encompasses a frequency span that is less than or equal to a coherence bandwidth of a wireless channel in the system; processing the pilot symbols to obtain a pilot signal having the pilot symbols included in the first set of subbands; and transmitting the pilot signal from the first transmitting entity.
Hydrostatic axial piston pump for a speed-controlled hydrostatic propulsion drive , which hydrostatic axial piston pump has an adjustable swept volume (V P ), is provided in an, in particular closed, hydraulic circuit for the fluidic connection to a hydraulic motor , and, for the adjustment of the swept volume (V P ), has an adjusting unit which has an actuating cylinder with a first actuating pressure chamber (10 1 ), in which a first actuating pressure (p st1 ) can be set via a first pressure reducing valve (20 1 ), which first actuating pressure (p st1 ) is dependent on a first current (I 1 ) at a first electromagnet (a) of the first pressure reducing valve (20 1 ), and which hydrostatic axial piston pump has an electronic control device , in which a model of the first current (I 1 ) is stored in a manner which is dependent on a speed (v soll ) which can be requested or is requested, characterized by an adaptation device which is configured in such a way that the model can be adapted via it in a manner which is dependent on the first current (I 1 ) and an actual speed (v ist ) which can be assigned or is assigned to it.
An elastomeric article formed from a nitrile butadiene rubber formulation, said article comprising: a substrate with a predetermined thickness of up to 0.12 mm, wherein the substrate has force response behavior similar to that of a natural-latex-rubber substrate with a thickness of 0.15mm, as characterised by having a force to break (F-BE) of at least 8 Newtons (N) determined according to ASTM D-412-98a, and a force of up to 3.5 Newtons (N) to cause a 400% elongation (F-400) of said article from initial dimensions determined according to ASTM D-412-98a, wherein the formulation comprises a random terpolymer composition containing acrylonitrile, methacrylic acid and butadiene components, said composition comprising a blend of acrylonitrile components, wherein the acrylonitrile content of the blended composition is between 17 and 45% by weight, the methacrylic acid content of the blended composition is less than 15% by weight, and butadiene makes up the remainder balance of the blended composition. a substrate with a predetermined thickness of up to 0.12 mm, wherein the substrate has force response behavior similar to that of a natural-latex-rubber substrate with a thickness of 0.15mm, as characterised by having a force to break (F-BE) of at least 8 Newtons (N) determined according to ASTM D-412-98a, and a force of up to 3.5 Newtons (N) to cause a 400% elongation (F-400) of said article from initial dimensions determined according to ASTM D-412-98a, wherein the formulation comprises a random terpolymer composition containing acrylonitrile, methacrylic acid and butadiene components, said composition comprising a blend of acrylonitrile components, wherein the acrylonitrile content of the blended composition is between 17 and 45% by weight, the methacrylic acid content of the blended composition is less than 15% by weight, and butadiene makes up the remainder balance of the blended composition.
A system comprising an edge device (100; 500, 502) for a network, the edge device (100; 500, 502) configured to connect to one or more production devices , wherein the edge device (100; 500, 502) is adapted to run a plurality of microservices , each microservice comprising an artifact adapted for accessing an analytics database , wherein the analytics database is shared between microservices , wherein the edge device (100; 500, 502) is adapted to access measurement information pertaining to the one or more production devices , wherein the measurement information is stored in a measurement database that is separate from the analytics database ; wherein the edge device (100; 500, 502) is adapted to receive an update for a microservice ; further comprising a second edge device , wherein the edge device (100; 500) is configured to connect to the second edge device and is adapted to run the microservice to be updated, wherein the update for the microservice is run on the second edge device that is started from a standby modus for running the update , and wherein the production device is an industrial production equipment and wherein once the update is finished, the second edge device is configured to change the modus to active and the edge device (100; 500) is configured to change the modus to standby.
A method for determining blood pressure in a blood vessel, wherein a pulse wave transit time is determined in a measurement process by means of at least two sensors arranged at a defined distance from one another, wherein the blood pressure is determined from a change in pulse wave transit time by calibration, in particular by means of a clamping pressure measurement, without using a further signal proportional to the flow velocity, wherein the change in pulse wave transit time is inversely proportional to the change in blood pressure, wherein light pulses are emitted in the direction of the blood vessel by means of an lighting means of the sensors, wherein a portion of the light pulse reflected by the blood in the blood vessel and/or a portion of the light pulse transmitted through the blood in the blood vessel is detected by means of a detector of the sensors, wherein a time offset between the activation of the two sensors is regulated in such a way that the time offset corresponds to the pulse wave transit time, so that the same relative measured values are achieved which substantially represent the same point in the measured value profiles that are comparable in terms of the curve shape.
A method for screen change control based on input signals in an automatic screen change adjustment mode, the method comprising: receiving a user input signal including a screen change event for screen change; collecting screen ratio information for a currently active application program based on at least one of the proportion of the current application screen of the currently active application program on a display panel to the full screen and the ratio of enlargement or reduction by zooming with reference to a default sized screen; identifying the type of an application program of the currently active application program; determining screen change information associated with the identified type of application program and the collected screen ratio information with reference to an information table ; wherein the information table contains screen change information corresponding to screen ratio information, set to different values for different application program types; and wherein, for the identified type of application program, the screen change information indicates an amount of screen changes in response to the user input signal according to the screen ratio information; and automatically adjusting the amount of screen changes comprising at least one of a screen change speed and a screen change magnitude according to the determined screen change information. receiving a user input signal including a screen change event for screen change; collecting screen ratio information for a currently active application program based on at least one of the proportion of the current application screen of the currently active application program on a display panel to the full screen and the ratio of enlargement or reduction by zooming with reference to a default sized screen; identifying the type of an application program of the currently active application program; determining screen change information associated with the identified type of application program and the collected screen ratio information with reference to an information table ; wherein the information table contains screen change information corresponding to screen ratio information, set to different values for different application program types; and wherein, for the identified type of application program, the screen change information indicates an amount of screen changes in response to the user input signal according to the screen ratio information; and automatically adjusting the amount of screen changes comprising at least one of a screen change speed and a screen change magnitude according to the determined screen change information.
A peptide for use in a method of therapy, the peptide comprising at least one T-Cell epitope, wherein the peptide is not more than 50 amino acids in length and comprises a sequence obtainable by transglutaminase deamidating the sequence PQQPQQPFP; provided that the peptide: (i) is not an epitope that is selected from the group consisting of QQPYPEQPEQPFPQ, QQPFPEQPEQPFPQ, QLPFPEQPEQPFPQ and PFPQPEQPEQPFPQ; and (ii) is not a peptide obtained by tissue transglutaminase treatment of the peptide PQQPFPQPQQPQQPFPQSQQ. (i) is not an epitope that is selected from the group consisting of QQPYPEQPEQPFPQ, QQPFPEQPEQPFPQ, QLPFPEQPEQPFPQ and PFPQPEQPEQPFPQ; and (ii) is not a peptide obtained by tissue transglutaminase treatment of the peptide PQQPFPQPQQPQQPFPQSQQ.
A composite material comprising cellulose, chitin, chitosan, and/or keratin, and a nitric oxide binding/releasing agent, wherein the composite material is obtainable by a method comprising removing an ionic liquid from an ionic liquid composition comprising: (a) cellulose, chitin, chitosan, and/or keratin dissolved in an ionic liquid; and (b) a nitric oxide binding/releasing agent dissolved in the ionic liquid, wherein the nitric oxide binding/releasing agent is a photoreactive metal complex which complex binds nitric oxide and releases nitric oxide when irradiated with near-infrared light having a wavelength between 600-900 nm.
Apparatus for checking the eyesight of a user , the apparatus comprising: a first lens which may be selectively closed to prevent light from reaching a first eye of a user ; a second lens for displaying an image for viewing by a second eye of a user ; a sensor configured to track a gaze direction of the user's second eye when an image is being displayed at the second lens ; and at least two audio output devices configured to output audio; and a processor configured to: receive an input from the sensor ; determine, based on the received input, whether the user's second eye is directed at the displayed image; and in response to determining that the user's second eye is not directed at the displayed image, cause at least one of the audio output devices to output audio characterised in that the audio is output such that the output audio is located in space at a location that corresponds with the location at which the image is displayed at the second lens so as to draw the user's second eye to the displayed image. a first lens which may be selectively closed to prevent light from reaching a first eye of a user ; a second lens for displaying an image for viewing by a second eye of a user ; a sensor configured to track a gaze direction of the user's second eye when an image is being displayed at the second lens ; and at least two audio output devices configured to output audio; and a processor configured to: receive an input from the sensor ; determine, based on the received input, whether the user's second eye is directed at the displayed image; and in response to determining that the user's second eye is not directed at the displayed image, cause at least one of the audio output devices to output audio characterised in that the audio is output such that the output audio is located in space at a location that corresponds with the location at which the image is displayed at the second lens so as to draw the user's second eye to the displayed image. receive an input from the sensor ; determine, based on the received input, whether the user's second eye is directed at the displayed image; and in response to determining that the user's second eye is not directed at the displayed image, cause at least one of the audio output devices to output audio characterised in that the audio is output such that the output audio is located in space at a location that corresponds with the location at which the image is displayed at the second lens so as to draw the user's second eye to the displayed image.
Method for forming a catheter balloon comprising the steps of: (a) providing a preform having a circumferential wall that encloses an internal space (I) of the preform , (b) pre-heating the preform to a shaping temperature by passing a heated gas or fluid via an inlet of the preform into said internal space (I), and (c) shaping the pre-heated preform into a balloon. (a) providing a preform having a circumferential wall that encloses an internal space (I) of the preform , (b) pre-heating the preform to a shaping temperature by passing a heated gas or fluid via an inlet of the preform into said internal space (I), and (c) shaping the pre-heated preform into a balloon.
Wall tile comprising a frame having at least one side edge (20a to 20d) and a cloth fixed under tension to said at least one side edge of the frame so as to cover one face of said frame, said cloth having a reflective front face and a rear face , wherein the wall tile further comprises at least one tension-reinforcing flat (4a to 4d) fixed to said at least one side edge of the frame, said at least one flat being positioned between the rear face of said cloth and said at least one side edge (20a to 20d) of said frame , at the edge of the ridge delimiting the said at least one side edge (20a to 20d) of the frame and the face of the frame covered by the cloth, the said at least one flat having a longitudinal edge bordering the said ridge in which the said at least one reinforcing flat (4a to 4d) is fixed to the cloth , except for a longitudinal zone bordering the longitudinal edge of the flat, wherein fixing of the said flat to the cloth is carried out by means of a first adhesive layer .
An apparatus comprising: voltage summation logic to provide a summed voltage corresponding to a sum of voltage contributions, each voltage contribution associated with a corresponding port controller of a plurality of port controllers ; and a first port controller to determine, based on the summed voltage, whether a second power source is to be coupled to a system power bus of a system via a second port controller of the plurality of port controllers, and if not, the first port controller is to couple a first power source to the system power bus; wherein the voltage summation logic includes a resistor having a first resistor terminal coupled to ground and a second resistor terminal coupled to each of the at least two port controllers, and wherein the summed voltage is to be measured between the first resistor terminal and the second resistor terminal. voltage summation logic to provide a summed voltage corresponding to a sum of voltage contributions, each voltage contribution associated with a corresponding port controller of a plurality of port controllers ; and a first port controller to determine, based on the summed voltage, whether a second power source is to be coupled to a system power bus of a system via a second port controller of the plurality of port controllers, and if not, the first port controller is to couple a first power source to the system power bus; wherein the voltage summation logic includes a resistor having a first resistor terminal coupled to ground and a second resistor terminal coupled to each of the at least two port controllers, and wherein the summed voltage is to be measured between the first resistor terminal and the second resistor terminal.
A hardenable steel consisting of the following chemical composition, in terms of weight percent: C 0.36-0.55%, Mn 0.1-0.7%, Si 0-0.7%, Mo 0.2-1.9%, Al ≤ 0.2% (not including 0%), Cr optionally ≤1%, Ni optionally ≤1%, Cu optionally ≤1%, Nb optionally ≤0.1%, Ti optionally ≤0.2%, V optionally ≤0.2%, B optionally ≤0.01%, W optionally ≤1%, and Co optionally ≤1%, wherein %Mo ≥ %Cr / 2 (when Cr is present), %Mo ≥ %Mn / 2, and 0.4 ≤ %Mn+%Cr+%Mo ≤ 2 the balance being iron, residual contents and unavoidable impurities. %Mo ≥ %Cr / 2 (when Cr is present), %Mo ≥ %Mn / 2, and 0.4 ≤ %Mn+%Cr+%Mo ≤ 2
A metal removal method comprising: a reaction step of bringing a treatment gas containing a fluorine-containing interhalogen compound and a metal-containing material containing a metal element into contact with each other to generate metal fluoride which is a reaction product of the fluorine-containing interhalogen compound and the metal element; and a volatilization step of heating the metal fluoride under an inert gas atmosphere or in a vacuum environment for volatilization, wherein the metal element is at least one kind selected from the group consisting of iron, cobalt, nickel, selenium, molybdenum, rhodium, palladium, tungsten, rhenium, iridium, and platinum. a reaction step of bringing a treatment gas containing a fluorine-containing interhalogen compound and a metal-containing material containing a metal element into contact with each other to generate metal fluoride which is a reaction product of the fluorine-containing interhalogen compound and the metal element; and a volatilization step of heating the metal fluoride under an inert gas atmosphere or in a vacuum environment for volatilization, wherein the metal element is at least one kind selected from the group consisting of iron, cobalt, nickel, selenium, molybdenum, rhodium, palladium, tungsten, rhenium, iridium, and platinum.