mhurhangee/patent-ind-claim-en huggingface dataset:
A control method used for a two-wheel balance car, the two-wheel balance car comprising two parallel wheels and a turning control component for facilitating control of turning of the two-wheel balance car, wherein the turning control component is implemented through manual control or leg control, and the method comprising: identifying the type of an obstacle in front of any of the wheels, and the type comprising impassable obstacle; if the type of the obstacle is the impassable obstacle, controlling the two-wheel balance car to decelerate, and shielding the turning control component so that said two-wheel balance car is prevented to turn in response to a user control or misoperation, the method being characterized in that said obstacle is identified as impassable type if the height of said obstacle is greater than a predetermined threshold corresponding to the maximum height of an obstacle that can be passed by the two-wheel balance car; the method being further characterized in that , the type further comprises: passable obstacle that can be passed by the two-wheel balance car only when accelerated; said obstacle being identified as passable type if the height of said obstacle is less than the predetermined threshold and greater than a predetermined value corresponding to the maximum height of the obstacle that can be passed by the two-wheel balance car without acceleration ; and in that the method further comprises: if the type of the obstacle is the passable obstacle, increasing the driving force to the two-wheel balance car to continue moving. identifying the type of an obstacle in front of any of the wheels, and the type comprising impassable obstacle; if the type of the obstacle is the impassable obstacle, controlling the two-wheel balance car to decelerate, and shielding the turning control component so that said two-wheel balance car is prevented to turn in response to a user control or misoperation, the method being characterized in that said obstacle is identified as impassable type if the height of said obstacle is greater than a predetermined threshold corresponding to the maximum height of an obstacle that can be passed by the two-wheel balance car; the method being further characterized in that , the type further comprises: passable obstacle that can be passed by the two-wheel balance car only when accelerated; said obstacle being identified as passable type if the height of said obstacle is less than the predetermined threshold and greater than a predetermined value corresponding to the maximum height of the obstacle that can be passed by the two-wheel balance car without acceleration ; and in that the method further comprises: if the type of the obstacle is the passable obstacle, increasing the driving force to the two-wheel balance car to continue moving.
A method for preparing a recycled ABS resin, the method comprising: preparing an extrusion feed including an acrylonitrile butadiene styrene (ABS) base resin including polyurethane, a metal carboxylic acid salt, and a polyhydric alcohol; and supplying the extrusion feed to an extruder to perform a depolymerization reaction of the polyurethane and extruding the extrusion feed. preparing an extrusion feed including an acrylonitrile butadiene styrene (ABS) base resin including polyurethane, a metal carboxylic acid salt, and a polyhydric alcohol; and supplying the extrusion feed to an extruder to perform a depolymerization reaction of the polyurethane and extruding the extrusion feed.
A wireless battery management system, comprising: a master configured to wirelessly transmit a main command packet every reference time; and a plurality of slaves (200_1 - 200_N) provided to monitor a state of a plurality of battery modules, each slave including a watchdog timer , each slave (200_1 - 200_N) configured to wirelessly transmit a response packet including an ID of each slave (200_1 - 200_N) when receiving the main command packet, wherein the master is configured to: scan the response packet from each slave (200_1 - 200_N) during a threshold time from a time point at which the main command packet was transmitted, classify each slave (200_1 - 200_N) to which the ID included in each response packet received within the threshold time is allocated as a first group, and each slave (200_1 - 200_N) not classified as the first group as a second group, and wherein each slave (200_1 - 200_N) is configured to: initialize a time count of the watchdog timer when receiving the main command packet, be reset by the watchdog timer when the time count of the watchdog timer reaches a timeout that is equal to or less than the reference time. a master configured to wirelessly transmit a main command packet every reference time; and a plurality of slaves (200_1 - 200_N) provided to monitor a state of a plurality of battery modules, each slave including a watchdog timer , each slave (200_1 - 200_N) configured to wirelessly transmit a response packet including an ID of each slave (200_1 - 200_N) when receiving the main command packet, wherein the master is configured to: scan the response packet from each slave (200_1 - 200_N) during a threshold time from a time point at which the main command packet was transmitted, classify each slave (200_1 - 200_N) to which the ID included in each response packet received within the threshold time is allocated as a first group, and each slave (200_1 - 200_N) not classified as the first group as a second group, and wherein each slave (200_1 - 200_N) is configured to: initialize a time count of the watchdog timer when receiving the main command packet, be reset by the watchdog timer when the time count of the watchdog timer reaches a timeout that is equal to or less than the reference time. initialize a time count of the watchdog timer when receiving the main command packet, be reset by the watchdog timer when the time count of the watchdog timer reaches a timeout that is equal to or less than the reference time.
A method for collecting tire wear comprising the steps of: - Providing at least one collecting device (20; 22; 23); and - Collecting tire wear at the collecting device (20; 22; 23), wherein the collecting device (20; 22; 23) is magnetically attractive, wherein the tire wear is magnetically attractable, and wherein the collecting device (20; 22; 23) is not vehicle-bound, characterized in that the collecting device (20; 22; 23) has an effective field strength of at least 30 mT or more, preferably of at least 100 mT or more, at a surface of the collecting device (20; 22; 23), and wherein the collecting device (20; 22; 23) collects the tire wear by means of a magnetic attraction force between the collecting device (20; 22; 23) and the tire wear . - Providing at least one collecting device (20; 22; 23); and - Collecting tire wear at the collecting device (20; 22; 23), wherein the collecting device (20; 22; 23) is magnetically attractive, wherein the tire wear is magnetically attractable, and wherein the collecting device (20; 22; 23) is not vehicle-bound, characterized in that the collecting device (20; 22; 23) has an effective field strength of at least 30 mT or more, preferably of at least 100 mT or more, at a surface of the collecting device (20; 22; 23), and wherein the collecting device (20; 22; 23) collects the tire wear by means of a magnetic attraction force between the collecting device (20; 22; 23) and the tire wear . characterized in that the collecting device (20; 22; 23) has an effective field strength of at least 30 mT or more, preferably of at least 100 mT or more, at a surface of the collecting device (20; 22; 23), and wherein the collecting device (20; 22; 23) collects the tire wear by means of a magnetic attraction force between the collecting device (20; 22; 23) and the tire wear .
A method for power management in an Integrated Access and Backhaul, IAB, wireless network comprising IAB nodes, the method comprising: determining , at a first IAB node, a priority value associated with the first IAB node configured to serve one or more child nodes; determining , at the first IAB node, an occurrence of interference to communications of the first IAB node or a second IAB node; determining, at the first IAB node, a priority value associated with the second IAB node; and taking , by the first IAB node, one or more actions in response to the determination of the occurrence of interference based on the priority value associated with the first IAB node and the priority value associated with the second IAB node, wherein each priority value is specific to a beam to be used for the communications or a band associated with the communications. determining , at a first IAB node, a priority value associated with the first IAB node configured to serve one or more child nodes; determining , at the first IAB node, an occurrence of interference to communications of the first IAB node or a second IAB node; determining, at the first IAB node, a priority value associated with the second IAB node; and taking , by the first IAB node, one or more actions in response to the determination of the occurrence of interference based on the priority value associated with the first IAB node and the priority value associated with the second IAB node, wherein each priority value is specific to a beam to be used for the communications or a band associated with the communications.
Light guide (2; 102) comprising: - a transparent body (4; 104) generally elongated in a main direction with an outer surface (12; 112) forming with the environment of said body a dioptre ; - beam exit means extending along the outer surface of the body, capable of transversely exiting the body of the light rays propagating there; the beam exit means comprising: - a first row (16; 116) of means arranged consecutively; and - at least one second row (14, 18; 114, 118) of consecutively arranged means, the distance separating two consecutive means from the first and/or second row or rows being variable along said row or rows, the means of the first and second row or rows being inclined reflection facets capable of reflecting the rays with a view to their exit, characterized in that the reflection facets of the second row or rows are smaller than the corresponding reflection facets of the first row. - a transparent body (4; 104) generally elongated in a main direction with an outer surface (12; 112) forming with the environment of said body a dioptre ; - beam exit means extending along the outer surface of the body, capable of transversely exiting the body of the light rays propagating there; - a first row (16; 116) of means arranged consecutively; and - at least one second row (14, 18; 114, 118) of consecutively arranged means, the distance separating two consecutive means from the first and/or second row or rows being variable along said row or rows, the means of the first and second row or rows being inclined reflection facets capable of reflecting the rays with a view to their exit, characterized in that the reflection facets of the second row or rows are smaller than the corresponding reflection facets of the first row.
A wire comprising: a core wire ; an insulating coating that covers an outer periphery of a part of the core wire other than a distal end region ; and a distal end seal part that is disposed separately from the insulating coating and seals a distal end part of the distal end region of the core wire , and wherein the core wire is exposed between the distal end seal part and the insulating coating , the distal end seal part comprises: a tubular distal end cover part that covers an outer periphery of the distal end part ; and a welded part that is crushed in a cross direction crossing a longitudinal direction of the wire and is closed by welding; characterized in that a shape of a cross section , which is orthogonal to the longitudinal direction of the wire , of the welded part is a U-shape or a V-shape. a core wire ; an insulating coating that covers an outer periphery of a part of the core wire other than a distal end region ; and a distal end seal part that is disposed separately from the insulating coating and seals a distal end part of the distal end region of the core wire , and wherein the core wire is exposed between the distal end seal part and the insulating coating , the distal end seal part comprises: a tubular distal end cover part that covers an outer periphery of the distal end part ; and a welded part that is crushed in a cross direction crossing a longitudinal direction of the wire and is closed by welding; characterized in that a shape of a cross section , which is orthogonal to the longitudinal direction of the wire , of the welded part is a U-shape or a V-shape. a tubular distal end cover part that covers an outer periphery of the distal end part ; and a welded part that is crushed in a cross direction crossing a longitudinal direction of the wire and is closed by welding; characterized in that a shape of a cross section , which is orthogonal to the longitudinal direction of the wire , of the welded part is a U-shape or a V-shape.
Trousers with a carrying device for wearing a holster component for concealed placement of a law-enforcement equipment placed in the holster component inside a trouser-leg, wherein a slit opening is formed in the trousers to provide access to the law-enforcement equipment , whereby the trousers comprises an inner pants inside the trousers, fixed to the trousers at a waistband thereof, a carrying component is positioned inside the trouser-leg in a way to be accessible through the slit opening , fixed to the inner pants , and the carrying component is fastened to the trousers' waistband at a given distance from it by holding components , and fixed in full length to the inner pants , furthermore the carrying component is equipped with thigh-fasteners for fastening the carrying component to a thigh of a user, and in that joining components are placed on the holster component and on the carrying component for joining together the holster component and the carrying component .
A method, comprising: forming a radio frequency device at an active layer of a silicon on insulator substrate , forming an insulation region in a region around the radio frequency device , forming silicon filler regions in the insulation region , and forming polysilicon filler regions above the insulation region , wherein the polysilicon filler regions are provided at different positions than the silicon filler regions in a top view on the substrate, wherein the silicon filler regions are undoped. forming a radio frequency device at an active layer of a silicon on insulator substrate , forming an insulation region in a region around the radio frequency device , forming silicon filler regions in the insulation region , and forming polysilicon filler regions above the insulation region , wherein the polysilicon filler regions are provided at different positions than the silicon filler regions in a top view on the substrate, wherein the silicon filler regions are undoped.
A method for an ink-based digital printing system, comprising: i. providing an imaging member comprising: a. a reimageable surface layer disposed on a structural mounting layer, the reimageable surface layer comprising a fluorosilicone elastomer and an infrared-absorbing filler comprising carbon black, and b. a plurality of surface defects on the reimageable surface layer, wherein the surface defects comprise carbon black exposed through the fluorosilicone elastomer; and ii. applying a coating of rejuvenating oil comprising an amino-functional organopolysiloxane to the reimageable surface layer, whereby at least a portion of the plurality of surface defects are coated by the amino-functional organopolysiloxane, thereby rejuvenating the imaging member. i. providing an imaging member comprising: a. a reimageable surface layer disposed on a structural mounting layer, the reimageable surface layer comprising a fluorosilicone elastomer and an infrared-absorbing filler comprising carbon black, and b. a plurality of surface defects on the reimageable surface layer, wherein the surface defects comprise carbon black exposed through the fluorosilicone elastomer; and a. a reimageable surface layer disposed on a structural mounting layer, the reimageable surface layer comprising a fluorosilicone elastomer and an infrared-absorbing filler comprising carbon black, and b. a plurality of surface defects on the reimageable surface layer, wherein the surface defects comprise carbon black exposed through the fluorosilicone elastomer; and ii. applying a coating of rejuvenating oil comprising an amino-functional organopolysiloxane to the reimageable surface layer, whereby at least a portion of the plurality of surface defects are coated by the amino-functional organopolysiloxane, thereby rejuvenating the imaging member.
A first communication device configured to perform communication through a bus, comprising: a transmitting and receiving unit configured to transmit and receive a signal to and from one or more second communication devices (13-1; 13-2; 13-3); and an error detection unit configured to detect, when the transmitting and receiving unit transmits the signal, whether an error has occurred in the signal by using an error detection method according to transmission and reception of the signal, wherein the signal is transmitted and received between the first communication device and one of the one or more second communication devices (13-1; 13-2; 13-3), and wherein the first communication device is configured to have a communication initiative through the bus, and wherein a first word of a frame head within the signal comprises a bit stream which comprises predetermined 7 bits indicating a broadcast command and one bit indicating a data read or write request, which indicates data write, wherein the broadcast command is for notifying of simultaneous transmission of a command for switching a transmission scheme to high data rate transmission, to all of the one or more second communication devices (13-1; 13-2; 13-3) as a target. a transmitting and receiving unit configured to transmit and receive a signal to and from one or more second communication devices (13-1; 13-2; 13-3); and an error detection unit configured to detect, when the transmitting and receiving unit transmits the signal, whether an error has occurred in the signal by using an error detection method according to transmission and reception of the signal, wherein the signal is transmitted and received between the first communication device and one of the one or more second communication devices (13-1; 13-2; 13-3), and wherein the first communication device is configured to have a communication initiative through the bus, and wherein a first word of a frame head within the signal comprises a bit stream which comprises predetermined 7 bits indicating a broadcast command and one bit indicating a data read or write request, which indicates data write, wherein the broadcast command is for notifying of simultaneous transmission of a command for switching a transmission scheme to high data rate transmission, to all of the one or more second communication devices (13-1; 13-2; 13-3) as a target.
A food product treatment system , comprising: an injectade reservoir ; a filter ; a first positive displacement pump configured to force injectade from the injectade reservoir through the filter ; a spray nozzle head , comprising multiple inlet channels and multiple sets of nozzles , wherein the multiple inlet channels direct injectade to the multiple sets of nozzles , and wherein the spray nozzle head is configured to receive the injectade from the first positive displacement pump , act as a manifold, deliver a consistent and predictable amount of injectade, and inject the injectade into a food product without having the spray nozzle head contact the food product; and a valve that is configured to selectively open and close to regulate when and how much of the injectade that passes through the filter is forced out of the multiple sets of nozzles , wherein the system further comprises: (a) a computer processor that is configured to control an amount of the injectade that is forced out of the multiple sets of nozzles ; and (b) a first and a second pressure sensor , wherein the first pressure sensor is configured to measure a pressure of the injectade prior to passing the valve and wherein the second pressure sensor is configured to measure a pressure of the injectade after passing the valve and before being forced from the multiple sets of nozzles . an injectade reservoir ; a filter ; a first positive displacement pump configured to force injectade from the injectade reservoir through the filter ; a spray nozzle head , comprising multiple inlet channels and multiple sets of nozzles , wherein the multiple inlet channels direct injectade to the multiple sets of nozzles , and wherein the spray nozzle head is configured to receive the injectade from the first positive displacement pump , act as a manifold, deliver a consistent and predictable amount of injectade, and inject the injectade into a food product without having the spray nozzle head contact the food product; and a valve that is configured to selectively open and close to regulate when and how much of the injectade that passes through the filter is forced out of the multiple sets of nozzles , wherein the system further comprises: (a) a computer processor that is configured to control an amount of the injectade that is forced out of the multiple sets of nozzles ; and (b) a first and a second pressure sensor , wherein the first pressure sensor is configured to measure a pressure of the injectade prior to passing the valve and wherein the second pressure sensor is configured to measure a pressure of the injectade after passing the valve and before being forced from the multiple sets of nozzles . (a) a computer processor that is configured to control an amount of the injectade that is forced out of the multiple sets of nozzles ; and (b) a first and a second pressure sensor , wherein the first pressure sensor is configured to measure a pressure of the injectade prior to passing the valve and wherein the second pressure sensor is configured to measure a pressure of the injectade after passing the valve and before being forced from the multiple sets of nozzles .
An apparatus, comprising: a video encoder for encoding at least a block in a picture by transforming a residue of the block to obtain transform coefficients, quantizing the transform coefficients to obtain quantized transform coefficients, and entropy coding the quantized transform coefficients, wherein the quantized transform coefficients are encoded using a first flag syntax element to indicate that a current one of the quantized transform coefficients being processed is a last non-zero coefficient for the block in a given scanning order having a value greater than or equal to a specified value, a second flag syntax element to indicate whether a current one of the quantized transform coefficients known to be non-zero has an absolute value of one or larger than one, a sig flag syntax element for indicating whether the current one of the quantized transform coefficients has a non-zero value, a last flag syntax element for indicating whether the current one of the quantized transform coefficients having a non-zero value is a last quantized transform coefficient having the non-zero value in the block in the given scanning order, a level syntax element for indicating an absolute value of the current one of the quantized transform coefficients when the current one of the quantized transform coefficients has the absolute value greater than the specified value, and a sign flag syntax element for indicating a corresponding sign of the current one of the quantized transform coefficients wherein the specified value is selected from among a plurality of values, said selected value is explicitly signaled for the block and wherein the first flag syntax element, the second flag syntax element, the sig flag syntax element, the last flag syntax element, the level syntax element, and the sign flag syntax element are encoded in the given scanning order.