mhurhangee/ep-ind-claims huggingface dataset:
A data transfer method operational on a device configured for communication between two or more devices using a 3-phase signal transmitted over a 3-wire communication link, comprising: determining presence of a misalignment of the 3-wire communication link involving two or more wires, wherein the 3-phase signal must be transmitted on all wires of the 3-wire communication link in different phases; and inverting a first bit of a 3-bit symbol corresponding to a transition of signaling state of the 3-wire communication link when the misalignment of the 3-wire communication link is determined to affect phase relationships between two or more signals carried on the 3-wire communication link, wherein inverting the first bit reverses an effect of the misalignment of the 3-wire communication link. determining presence of a misalignment of the 3-wire communication link involving two or more wires, wherein the 3-phase signal must be transmitted on all wires of the 3-wire communication link in different phases; and inverting a first bit of a 3-bit symbol corresponding to a transition of signaling state of the 3-wire communication link when the misalignment of the 3-wire communication link is determined to affect phase relationships between two or more signals carried on the 3-wire communication link, wherein inverting the first bit reverses an effect of the misalignment of the 3-wire communication link.
A conveyor belt comprising a reinforcement layer, a carry cover layer above the reinforcement layer, and a pulley cover layer beneath the reinforcement layer, wherein the carry cover layer comprises a fluoroelastomer, wherein high temperature resistance is provided by the carry cover layer so that the conveyor belt is adapted to transport materials having a temperature in excess of 200°C, characterized in that the fluoroelastomer has repeat units which are comprised of at least a perfluoroolefin monomer, a perfluorovinyl ether monomer, and a cure site monomer.
A holding assembly configured to hold an article of footwear, comprising: a base portion; a last portion attached to the base portion, the last portion further comprising: a first side portion, the first side portion induding an outer surface that is moldable; a second side portion; a bladder member disposed between the first side portion and the second side portion, wherein the bladder member is inflatable; wherein the first side portion includes a frame portion, a flexible membrane and a plurality of bead members and wherein the plurality of bead members are sealed in an interior chamber bounded by the frame portion and the flexible membrane; and wherein expanding the bladder member causes the second side portion to extend away from the first side portion. a base portion; a last portion attached to the base portion, the last portion further comprising: a first side portion, the first side portion induding an outer surface that is moldable; a second side portion; a bladder member disposed between the first side portion and the second side portion, wherein the bladder member is inflatable; wherein the first side portion includes a frame portion, a flexible membrane and a plurality of bead members and wherein the plurality of bead members are sealed in an interior chamber bounded by the frame portion and the flexible membrane; and wherein expanding the bladder member causes the second side portion to extend away from the first side portion.
A contact protection system for multiple power busbars that are arranged parallel to one another in the horizontal direction, said power busbars having contact protection modules that are embodied as planar and comprise in each case holding feet for engaging behind the power busbars and latching elements for mutually latching with adjacent contact protection modules, wherein the contact protection modules comprise in each case for each of the power busbars a terminal receiving region for receiving connecting terminals that are provided so as to electrically contact the respective power busbar, wherein each contact protection module comprises a number of terminal receiving regions, said number corresponding to the number of power busbars, wherein the terminal receiving regions in each case comprise contacting slots for allowing electrical contact with the power busbars by means of the connecting terminals, said contacting slots being arranged parallel to one another and being finger-safe, wherein the contact protection modules can be slid onto multiple power busbars that are arranged parallel to one another in the horizontal direction in such a manner that the holding feet of the contact protection modules engage behind the power busbars, wherein an edge profile can be plugged onto a lower edge of the contact protection modules that are latched to one another and slid onto the power bus bars and said edge profile can be latched to power busbar carrier covering modules in a non-positive locking manner and consequently the contact protection modules are impeded from unintentionally sliding from the power busbars.
A data centre including one or more controllable air circulation systems, one or more aisles comprising a plurality of cold aisles interleaved between at least three hot aisles, a plurality of rows of racks, each row being arranged parallel to at least one of the aisles, the data centre being so arranged that in use cooling air passes, under the control of the one or more controllable air circulation systems, from a cold aisle through the racks to a hot aisle, and an access door providing access to at least one of the aisles, the door being movable between an open position allowing personnel access to the aisle and a closed position, wherein each cold aisle is defined between two adjacent rows of racks, each cold aisle has a width that is substantially constant along its length, the door has an aperture, the one or more controllable air circulation systems comprises a controllable air intake arrangement accommodated in the aperture of the door, the access door is one of multiple such doors, each door providing access to a respective cold aisle, there is provided a cold air supply region for transporting, under the control of the one or more air circulation systems, cooling air, above the floor, via the respective doors to the respective cold aisles, the cold air supply region has a height greater than 1. 5m above the floor; and wherein the data centre is characterised in that the width of the door is wider than the width of the aisle associated with the door, and the width of the aperture is larger than or substantially equal to the width of the aisle.
A device, comprising: a rotary actuated motor configured to rotatably drive a motor member; a drive member coupled to the motor member and having a drive arm configured to responsively move from a first position to a second position upon rotation of the motor member; an actuator responsive to movement of the drive arm moved from the first position to the second position; a first sensor disposed proximate the first position; a second sensor disposed proximate the second position; and a drive circuit configured to generate a pulse width modulated 'PWM' drive signal configured to controllably drive the motor, the PWM drive signal having (i) a first duty cycle (PHASE 1) configured to advance the drive arm from the first position to a first intermediate position between the first position and the second position, (ii) a second duty cycle (PHASE 2) configured to advance the drive arm from the first intermediate position to a second intermediate position between the first intermediate position and the second position, the second duty cycle different than the first duty cycle, and (iii) a third duty cycle (PHASE 3) configured to be used as the drive arm approaches the second position from the second intermediate position; wherein the drive circuit is configured to increase the first duty cycle to accelerate a speed of the drive arm advancing from the first position towards the first intermediate position; and wherein the drive circuit is configured to establish the first, second and third duty cycles as a function of at least one output from each of the first and second sensors. a rotary actuated motor configured to rotatably drive a motor member; a drive member coupled to the motor member and having a drive arm configured to responsively move from a first position to a second position upon rotation of the motor member; an actuator responsive to movement of the drive arm moved from the first position to the second position; a first sensor disposed proximate the first position; a second sensor disposed proximate the second position; and a drive circuit configured to generate a pulse width modulated 'PWM' drive signal configured to controllably drive the motor, the PWM drive signal having (i) a first duty cycle (PHASE 1) configured to advance the drive arm from the first position to a first intermediate position between the first position and the second position, (ii) a second duty cycle (PHASE 2) configured to advance the drive arm from the first intermediate position to a second intermediate position between the first intermediate position and the second position, the second duty cycle different than the first duty cycle, and (iii) a third duty cycle (PHASE 3) configured to be used as the drive arm approaches the second position from the second intermediate position; wherein the drive circuit is configured to increase the first duty cycle to accelerate a speed of the drive arm advancing from the first position towards the first intermediate position; and wherein the drive circuit is configured to establish the first, second and third duty cycles as a function of at least one output from each of the first and second sensors.
A method performed by a wireless device in a wireless communication system, the method comprising: receiving, from a network, channel busy ratio, CBR, information for a resource pool that is broadcast via system information; and performing a sidelink communication based on transmission parameters, wherein, after receiving the CBR information, the method further comprises: in case a CBR measured by the wireless device for the resource pool is available, determining the transmission parameters based on the measured CBR; and in case the CBR measured for the resource pool is unavailable, identifying the transmission parameters by the CBR information received from the network. receiving, from a network, channel busy ratio, CBR, information for a resource pool that is broadcast via system information; and performing a sidelink communication based on transmission parameters, wherein, after receiving the CBR information, the method further comprises: in case a CBR measured by the wireless device for the resource pool is available, determining the transmission parameters based on the measured CBR; and in case the CBR measured for the resource pool is unavailable, identifying the transmission parameters by the CBR information received from the network.
A method of wireless communication performed by a base station, comprising: receiving, from a user equipment, UE, an indication of multiple scheduling offset thresholds corresponding to multiple numerologies, that indicates, for each numerology, a corresponding minimum duration between a downlink control information, DCI, and an aperiodic channel state information reference signal, A-CSI-RS, scheduled by the DCI; determining a first numerology of a first carrier and a second numerology of a second carrier; determining a scheduling offset threshold based at least in part on the first numerology, the second numerology, or both the first numerology and the second numerology, wherein the scheduling offset threshold indicates the minimum duration for the UE to switch to a different beam; and transmitting, to the UE, on the first carrier, a DCI scheduling an A-CSI-RS, on the second carrier, based at least in part on the scheduling offset threshold, wherein the DCI schedules the A-CSI-RS with an offset that indicates a duration between the DCI and the A-CSI-RS. receiving, from a user equipment, UE, an indication of multiple scheduling offset thresholds corresponding to multiple numerologies, that indicates, for each numerology, a corresponding minimum duration between a downlink control information, DCI, and an aperiodic channel state information reference signal, A-CSI-RS, scheduled by the DCI; determining a first numerology of a first carrier and a second numerology of a second carrier; determining a scheduling offset threshold based at least in part on the first numerology, the second numerology, or both the first numerology and the second numerology, wherein the scheduling offset threshold indicates the minimum duration for the UE to switch to a different beam; and transmitting, to the UE, on the first carrier, a DCI scheduling an A-CSI-RS, on the second carrier, based at least in part on the scheduling offset threshold, wherein the DCI schedules the A-CSI-RS with an offset that indicates a duration between the DCI and the A-CSI-RS.
An adaptive electronic protection system for a global navigation satellite system, GNSS, threat mitigation comprising: a precorrelation characterization component configured to provide at least one parameter characterizing a plurality of received signals; a correlator configured to provide a plurality of correlation results, each representing one of the plurality of received signals; a postcorrelation characterization component configured to determine at least one constraint on an optimization process according to the plurality of correlation results; and a spatial weight computation component configured to determine an optimal set of digital beam-forming weights via the optimization process based on the at least one parameter and the at least one constraint. a precorrelation characterization component configured to provide at least one parameter characterizing a plurality of received signals; a correlator configured to provide a plurality of correlation results, each representing one of the plurality of received signals; a postcorrelation characterization component configured to determine at least one constraint on an optimization process according to the plurality of correlation results; and a spatial weight computation component configured to determine an optimal set of digital beam-forming weights via the optimization process based on the at least one parameter and the at least one constraint.
A method for providing an indication of a level of distortion created by blocking artifacts in an image in a video comprising a plurality of pixels, the method comprising: for each pixel in a first given direction, determining a corresponding gradient between the pixel and a neighboring pixel; for each pixel in the first given direction, summing each of the corresponding determined gradient in a second direction to provide a plurality of gradient summing values; computing a level of distortion for each of at least one potential block size using at least one of the gradient summing values; determining an actual block size using the computed at least one level of distortion; and providing the level of distortion corresponding to the determined actual block size, said providing of said level of distorsion corresponding to the determined actual block size comprising performing a temporal filtering of the level of distortion. for each pixel in a first given direction, determining a corresponding gradient between the pixel and a neighboring pixel; for each pixel in the first given direction, summing each of the corresponding determined gradient in a second direction to provide a plurality of gradient summing values; computing a level of distortion for each of at least one potential block size using at least one of the gradient summing values; determining an actual block size using the computed at least one level of distortion; and providing the level of distortion corresponding to the determined actual block size, said providing of said level of distorsion corresponding to the determined actual block size comprising performing a temporal filtering of the level of distortion.
A heat exchanger comprising: a plurality of first tubes disposed to form a first row; a plurality of second tubes disposed on a side of the plurality of first tubes to form a second row; and a fin into which the plurality of first tubes and the plurality of second tubes are inserted, wherein the fin comprises a first row fin into which the plurality of first tubes are inserted; a second row fin into which the plurality of second tubes are inserted; a connection part connecting the first row fin to the second row fin; and a heat separation part to prevent heat conduction from occurring between the first tubes and the second tubes and having a cutoff part defined between the first row fin and the second row fin, the cutoff part is provided in plurality so that the plurality of cutoff parts are spaced apart from each other, and the connection part is disposed between two cutoff parts adjacent to each other, the plurality of second tubes comprise a rear tube, and the plurality of first tubes comprise an upper tube and a lower tube which are disposed closest to the rear tube of the plurality of first tubes, characterized in that the cutoff part between the rear tube and the upper tube meets two virtual exterior common tangents (t, t') with respect to the rear and upper tubes (121, 111), and in that a length of the cutoff part between the rear tube and the upper tube is the sum of a length connecting two points at which the cutoff part meets the two virtual exterior common tangents and a length that corresponds to a 1/2 of a center distance between the two first tubes that are disposed closest to the rear tube.
A method comprising: from a plurality of available instructions of a computer application, determining a set of instructions that provide specific functionality of the computer application by performing functional testing on the specific functionality of the computer application and capturing instructions executed during the functional testing, wherein the specific functionality is a subset of functionalities of the computer application; and avoiding, on a computer, exploitation of any security vulnerability present in the set of instructions, by: reorganizing memory addresses for the set of instructions on the computer, the reorganizing randomizes the memory addresses, while preserving relationships among the memory addresses, and rewriting the set of instructions to the reorganized memory addresses on the computer. from a plurality of available instructions of a computer application, determining a set of instructions that provide specific functionality of the computer application by performing functional testing on the specific functionality of the computer application and capturing instructions executed during the functional testing, wherein the specific functionality is a subset of functionalities of the computer application; and avoiding, on a computer, exploitation of any security vulnerability present in the set of instructions, by: reorganizing memory addresses for the set of instructions on the computer, the reorganizing randomizes the memory addresses, while preserving relationships among the memory addresses, and rewriting the set of instructions to the reorganized memory addresses on the computer. reorganizing memory addresses for the set of instructions on the computer, the reorganizing randomizes the memory addresses, while preserving relationships among the memory addresses, and rewriting the set of instructions to the reorganized memory addresses on the computer.
A control device comprising: a deviation calculating unit configured to output a first deviation signal and a second deviation signal for a first direction and a second direction crossing the first direction, respectively, based on a difference between a position command and positional data on a moving body; a compensation unit that outputs a first control signal and a second control signal based on the first deviation signal and the second deviation signal, respectively; and a controlled amount calculating unit that outputs at least a first signal regarding a driving parameter for a first motor (103, M1) and a second signal regarding a driving parameter for a second motor (104, M2), based on the first control signal and the second control signal, characterized in that the moving body is driven by a driving force obtained by synthesizing driving forces of at least the first motor (103, M1) and the second motor (104, M2), each of the first motor (103, M1) and the second motor (104, M2) has a driving force generation axis, a direction, along which the driving force generation axis of the first motor (103, M1) extends, crosses a direction along which the driving force generation axis of the second motor (104, M2) extends, and the controlled amount calculating unit outputs the first signal based on a calculation result using the first control signal and the second control signal, and outputs the second signal based on a calculation result using the first control signal and the second control signal. a deviation calculating unit configured to output a first deviation signal and a second deviation signal for a first direction and a second direction crossing the first direction, respectively, based on a difference between a position command and positional data on a moving body; a compensation unit that outputs a first control signal and a second control signal based on the first deviation signal and the second deviation signal, respectively; and a controlled amount calculating unit that outputs at least a first signal regarding a driving parameter for a first motor (103, M1) and a second signal regarding a driving parameter for a second motor (104, M2), based on the first control signal and the second control signal, characterized in that the moving body is driven by a driving force obtained by synthesizing driving forces of at least the first motor (103, M1) and the second motor (104, M2), each of the first motor (103, M1) and the second motor (104, M2) has a driving force generation axis, a direction, along which the driving force generation axis of the first motor (103, M1) extends, crosses a direction along which the driving force generation axis of the second motor (104, M2) extends, and the controlled amount calculating unit outputs the first signal based on a calculation result using the first control signal and the second control signal, and outputs the second signal based on a calculation result using the first control signal and the second control signal.
An arrangement comprising: - a plurality of diver propulsion vehicles, each configured for propelling at least one diver, wherein each diver propulsion vehicle comprises a wireless communication interface (9, 10, 13) configured for providing a wireless communication, - a support for mechanically coupling the plurality of diver propulsion vehicles, wherein the support is configured for mechanically coupling the plurality of diver propulsion vehicles side-by-side or longitudinally via the support, characterized in that the plurality of diver propulsion vehicles are configured for wirelessly communicating with one another via the wireless communication interfaces (9, 10, 13) and configured so that, in an event that one of the diver propulsion vehicles initiates or is controlled to initiate wireless communication via the wireless communication interfaces (9, 10, 13), the communication initiating diver propulsion vehicle acts as master and the other diver propulsion vehicle(s) act(s) as slave(s) during the wireless communication. - a plurality of diver propulsion vehicles, each configured for propelling at least one diver, wherein each diver propulsion vehicle comprises a wireless communication interface (9, 10, 13) configured for providing a wireless communication, - a support for mechanically coupling the plurality of diver propulsion vehicles, wherein the support is configured for mechanically coupling the plurality of diver propulsion vehicles side-by-side or longitudinally via the support,