mhurhangee/ep-ind-claims huggingface dataset:
A control circuit for a contactor, wherein the contactor comprises an excitation coil and a main contact coupled to the excitation coil, the control circuit comprising: a pulse converter configured to convert a received turn-on control signal indicating to turn on the contactor into a continuous pulse signal; a first controller connected to the pulse converter and configured to generate a first breaking control signal at a first time in response to detection of the disappearance of the continuous pulse signal received from the pulse converter; characterised by a second controller connected to the pulse converter and in parallel with the first controller, the second controller being configured to generate a second breaking control signal at a second time in response to detection of the disappearance of the continuous pulse signal received from the pulse converter, wherein the first time is earlier than the second time; and a coil driver connected to the first controller, the second controller and the excitation coil, and configured to turn off a current of the excitation coil according to the received first breaking control signal, and if the current is not turned off according to the first breaking control signal, to further turn off the current of the excitation coil according to the second breaking control signal, thereby realizing the breaking of the main contact. a pulse converter configured to convert a received turn-on control signal indicating to turn on the contactor into a continuous pulse signal; a first controller connected to the pulse converter and configured to generate a first breaking control signal at a first time in response to detection of the disappearance of the continuous pulse signal received from the pulse converter; characterised by a second controller connected to the pulse converter and in parallel with the first controller, the second controller being configured to generate a second breaking control signal at a second time in response to detection of the disappearance of the continuous pulse signal received from the pulse converter, wherein the first time is earlier than the second time; and a coil driver connected to the first controller, the second controller and the excitation coil, and configured to turn off a current of the excitation coil according to the received first breaking control signal, and if the current is not turned off according to the first breaking control signal, to further turn off the current of the excitation coil according to the second breaking control signal, thereby realizing the breaking of the main contact.
An integrated circuit to receive an input signal comprising a series of symbols over a communication channel, the series of symbols including an incoming symbol and previous symbols preceding the incoming symbol, wherein the previous symbols include a most-recently-received symbol immediately preceding the incoming symbol, the integrated circuit comprising: a continuous-time equalizer to equalize the input signal by attenuating or amplifying frequency components of the input signal for suppressing the interference from the most-recently received symbol, the frequency components corresponding to a frequency range encompassing interference from the most-recently received symbol in the series, to produce a first signal; a decision-feedback equalizer to equalize the first signal by means of a feedback filter with a plurality of taps for suppressing only the interference arising from previous symbols other than the most-recently received symbol in the series to produce an equalized signal; sampling means comprising a data sampler to produce data samples from the equalized signal and an error sampler to produce error samples from the equalized signal; and an adaptation engine configured to receive the data samples and the error samples and to provide control signals to the continuous-time equaliser and adapted tap coefficients to the decision-feedback equaliser. a continuous-time equalizer to equalize the input signal by attenuating or amplifying frequency components of the input signal for suppressing the interference from the most-recently received symbol, the frequency components corresponding to a frequency range encompassing interference from the most-recently received symbol in the series, to produce a first signal; a decision-feedback equalizer to equalize the first signal by means of a feedback filter with a plurality of taps for suppressing only the interference arising from previous symbols other than the most-recently received symbol in the series to produce an equalized signal; sampling means comprising a data sampler to produce data samples from the equalized signal and an error sampler to produce error samples from the equalized signal; and an adaptation engine configured to receive the data samples and the error samples and to provide control signals to the continuous-time equaliser and adapted tap coefficients to the decision-feedback equaliser.
A system for performing a cardiac electrophysiology procedure, comprising: a catheter including at least one magnetic localization sensor; an electrophysiology catheter including at least one magnetic localization sensor; and one or more processors adapted for: generating a cardiac model using the catheter inserted within the patient's heart, wherein the cardiac model comprises magnetic localization data measured using the at least one magnetic localization sensor; and localizing the electrophysiology catheter which is inserted into the patient's heart after the catheter has been removed from the patient's heart at an initial location within a coordinate system common to the cardiac model using the at least one magnetic localization sensor of the electrophysiology catheter for performing the electrophysiology procedure using the electrophysiology catheter. a catheter including at least one magnetic localization sensor; an electrophysiology catheter including at least one magnetic localization sensor; and one or more processors adapted for: generating a cardiac model using the catheter inserted within the patient's heart, wherein the cardiac model comprises magnetic localization data measured using the at least one magnetic localization sensor; and localizing the electrophysiology catheter which is inserted into the patient's heart after the catheter has been removed from the patient's heart at an initial location within a coordinate system common to the cardiac model using the at least one magnetic localization sensor of the electrophysiology catheter for performing the electrophysiology procedure using the electrophysiology catheter. generating a cardiac model using the catheter inserted within the patient's heart, wherein the cardiac model comprises magnetic localization data measured using the at least one magnetic localization sensor; and localizing the electrophysiology catheter which is inserted into the patient's heart after the catheter has been removed from the patient's heart at an initial location within a coordinate system common to the cardiac model using the at least one magnetic localization sensor of the electrophysiology catheter for performing the electrophysiology procedure using the electrophysiology catheter.
A key generating apparatus comprising an event detector (1; 10) for detecting events, and a key generator (4; 40) for generating keys according to a result of the detecting of the events detected by the event detector (1; 10), wherein the key generator (4; 40) generates a key set comprising a first key and a second key by using a key generating function; and wherein at least one of the first key and the second key matches a key generated by a target device according to a result of detecting of the events using the same key generation function; wherein the key generator (4; 40), when generating the first and second key using the key generating function, is configured to calculate the keys based on time intervals between points of time when the events are detected, wherein the key generating function includes a value "a" that is a constant determined based on a detection error limit between the key generating apparatus and the target device, both detecting the events at different points of time, and such that the key generator (4; 40) is configured to calculate the first and the second key of the key set by using the following key generating function key set = key Δt 1 − Δt 1 mod a, key Δt 1 − Δt 1 mod a + a, wherein key(Δt 1 -(Δt 1 mod a)) is obtained by inputting (Δt 1 -(Δt 1 mod a)) to a hash function, key(Δt 1 -(Δt 1 mod a) + a) is obtained by inputting (Δt 1 -(Δt 1 mod a) + a) to the hash function, Δt 1 is a time interval between a time when the key generating apparatus detects a first event and a time when the key generating apparatus detects a second event, and wherein "mod" is an operator for calculating a remainder.
A control element comprising a dial (2, 11) having an opening (8, 18) and a graphic plate located behind the dial (2, 11), the graphic plate having a marking (9, 19) which is at least partially aligned with the opening (8,18) so that it is visible therethrough when the dial (2, 11) is rotated relative to the graphic plate within a first angular range, characterised in that the graphic plate is rotatably mounted and the control element further comprises engagement means (23, 25) operable to cause the dial and the graphic plate to cooperate so that they rotate together when the dial is rotated within a second angular range, thereby preventing alignment of the marking on the graphic plate with the opening in the second angular range so that the marking is not visible through the opening in the second angular range.
A laundry dryer comprising a body, a drum wherein laundry to be dried is placed, an air circulation duct enabling the processing air to be sent onto the laundry in the drum, a heat exchanger that is disposed in the air circulation duct and that enables the temperature of the processing air blown onto the laundry to be changed, characterized by a spraying device that is disposed in the air circulation duct and that sprays water onto particles such as fiber, lint etc. accumulating on the heat exchanger via a guiding member, thus providing the cleaning of these particles, wherein the spraying device sprays water upwards so as to hit the guiding member situated thereabove, and wherein the guiding member is disposed on the heat exchanger, remains at the upper side of the heat exchanger, extends outwards from the heat exchanger and has a curved surface whereon the water sprayed from the spraying device contacts.
A user equipment that communicates over a radio interface with a base station apparatus of a radio access network, RAN, the user equipment comprising: processor circuitry configured to initiate a first type system information block, SIB, acquisition process to receive a first type SIB, the first type SIB comprising: scheduling information of a system information, SI, message, the SI message comprising at least one second type SIB; and an indication of broadcast status for the SI message, the indication indicating on-demand delivery; receiver circuitry configured to receive the first type SIB; transmitter circuitry configured to transmit an SI request message to request the SI message; and the processor circuitry further configured to initiate an SI message acquisition process to receive the SI message after determining that the SI request procedure is successful, wherein upon a failure of the SI message acquisition process, the processor circuitry is further configured to initiate the first type SIB acquisition process in a case that a stored version of one of the at least one second type SIB is not valid. scheduling information of a system information, SI, message, the SI message comprising at least one second type SIB; and an indication of broadcast status for the SI message, the indication indicating on-demand delivery; receiver circuitry configured to receive the first type SIB; transmitter circuitry configured to transmit an SI request message to request the SI message; and the processor circuitry further configured to initiate an SI message acquisition process to receive the SI message after determining that the SI request procedure is successful, wherein upon a failure of the SI message acquisition process, the processor circuitry is further configured to initiate the first type SIB acquisition process in a case that a stored version of one of the at least one second type SIB is not valid.
A buffered optical fiber unit, comprising: an optical fiber, comprising a glass fiber contiguously surrounded by a optical-fiber coating including one or more coating layers; and a polymeric buffering layer surrounding the optical fiber, the polymeric buffering layer defining an inner surface, the polymeric buffering layer including an aliphatic amide slip agent in an amount sufficient for at least some of the aliphatic amide slip agent to migrate to the inner surface of the polymeric buffering layer so that at least 15 centimeters of the polymeric buffering layer can be removed from the optical fiber in a single operation using a strip force of less than 10 N; wherein the inner diameter of the polymeric buffering layer is no more than 60 microns greater than the outer diameter of the optical fiber. an optical fiber, comprising a glass fiber contiguously surrounded by a optical-fiber coating including one or more coating layers; and a polymeric buffering layer surrounding the optical fiber, the polymeric buffering layer defining an inner surface, the polymeric buffering layer including an aliphatic amide slip agent in an amount sufficient for at least some of the aliphatic amide slip agent to migrate to the inner surface of the polymeric buffering layer so that at least 15 centimeters of the polymeric buffering layer can be removed from the optical fiber in a single operation using a strip force of less than 10 N; wherein the inner diameter of the polymeric buffering layer is no more than 60 microns greater than the outer diameter of the optical fiber.
A wind turbine comprising an electric machine in turn comprising a stator, and a rotor which rotates about an axis of rotation with respect to the stator; the rotor comprising a number of magnetized modules, and a number of supports for supporting the magnetized modules and arranged about the axis or rotation; the wind turbine being characterized in that at least two of the supports are parallel connected electrically at the opposite axial sides of the rotor by means of an electric conducting structure designed for flowing of parasitic currents along said two supports.
A channel detection method, comprising when N downlink bandwidth parts, BWPs, corresponding to a terminal are in an activated state, wherein an nth BWP in the N BWPs is provided with Cn control resource sets and Sn search space sets, determining, by the terminal, K BWPs and/or ∑ Cn ' control resource sets and/or ∑ Sn' search space sets according to a preset rule of a network device, N ≥ 2, 1 ≤ n ≤ N, 0 ≤ K ≤ N, 0 ≤ Cn' ≤ Cn, 0 ≤ Sn' ≤ Sn; and performing, by the terminal, detection on a downlink control channel in the K BWPs and/or the ∑ Cn ' control resource sets and/or the ∑ Sn' search space sets, wherein, the preset rule comprises at least one of: K BWPs with a largest or smallest subcarrier spacing in the N BWPs; K BWPs with a largest or smallest bandwidth in the N BWPs; K BWPs with a largest or smallest frequency domain range of the control resource sets in the N BWPs; all of the control resource sets in the N BWPs comprise ∑ n Cn ′ control resource sets with most or least frequency domain resources; all of the control resource sets of the N BWPs comprise ∑ n Cn ′ control resource sets with a largest or smallest time domain length; and all of the search space sets of the N BWPs comprise ∑ n Sn ′ search space sets with a largest or smallest time domain density. when N downlink bandwidth parts, BWPs, corresponding to a terminal are in an activated state, wherein an nth BWP in the N BWPs is provided with Cn control resource sets and Sn search space sets, determining, by the terminal, K BWPs and/or ∑ Cn ' control resource sets and/or ∑ Sn' search space sets according to a preset rule of a network device, N ≥ 2, 1 ≤ n ≤ N, 0 ≤ K ≤ N, 0 ≤ Cn' ≤ Cn, 0 ≤ Sn' ≤ Sn; and performing, by the terminal, detection on a downlink control channel in the K BWPs and/or the ∑ Cn ' control resource sets and/or the ∑ Sn' search space sets, wherein, the preset rule comprises at least one of: K BWPs with a largest or smallest subcarrier spacing in the N BWPs; K BWPs with a largest or smallest bandwidth in the N BWPs; K BWPs with a largest or smallest frequency domain range of the control resource sets in the N BWPs; all of the control resource sets in the N BWPs comprise ∑ n Cn ′ control resource sets with most or least frequency domain resources; all of the control resource sets of the N BWPs comprise ∑ n Cn ′ control resource sets with a largest or smallest time domain length; and all of the search space sets of the N BWPs comprise ∑ n Sn ′ search space sets with a largest or smallest time domain density. K BWPs with a largest or smallest subcarrier spacing in the N BWPs; K BWPs with a largest or smallest bandwidth in the N BWPs; K BWPs with a largest or smallest frequency domain range of the control resource sets in the N BWPs; all of the control resource sets in the N BWPs comprise ∑ n Cn ′ control resource sets with most or least frequency domain resources; all of the control resource sets of the N BWPs comprise ∑ n Cn ′ control resource sets with a largest or smallest time domain length; and all of the search space sets of the N BWPs comprise ∑ n Sn ′ search space sets with a largest or smallest time domain density.
Device for covering the visible end of the exhaust of a motor vehicle, comprising a base support and a screen, where the base support and screen consist of plastic and the screen forms the visible end, where the base support and the screen are joined together by adhesive bonding, characterised in that a heat-shielding plate is arranged on the inner side of the base support as a protection against thermal loads, and that the heat-shielding plate encloses the end face of the base support.
An electronic gaming machine and/or gambling machine, in particular a game of chance machine and/or a gambling machine that is coin-operated and/or can be operated by a monetary equivalent, having a machine housing, having a control device received in the machine housing for controlling at least one game, having at least one display apparatus, in particular a screen (3, 4), for displaying the at least one game, and having an operating field which is provided at the machine housing and which has at least one manually operable operating button for actuating the gaming machine and/or gambling machine, and having at least one foot pedal for inputting game control commands to the control device, wherein the foot pedal is configured as positionable on the floor separately from the machine housing in different positions relative to the machine housing, and having a knee pedal for inputting game control commands by a knee, wherein the knee pedal is provided at the machine housing at its front side, wherein a gaming machine function can selectively be actuated by the hand or by the foot, wherein the control device associates different control functions to the knee pedal and/or to the foot pedal at respectively different points in time of a game.
A rod inserter for delivering a spinal fixation rod through an access channel, the rod inserter comprising: a first member comprising an elongate tube with a proximal end and a distal end, with a passage extending from the proximal end to the distal end; a second member comprising an elongate shaft configured to move along the passage of the first member; a third member comprising a first end and a second end, the first end coupled to the second member; a rod holder comprising a leading end coupled to the distal end of the first member and a trailing end coupled to the second end of the third member, the rod holder configured to transition from an aligned configuration, wherein a longitudinal axis of the rod holder is generally parallel with a longitudinal axis of the second member, to an angled configuration wherein the longitudinal axis of the rod holder is at an angle to the longitudinal axis of the second member, the rod holder configured to releasably couple with a rod; and an actuator toward the proximal end of the first member configured to translate the second member, wherein translation of the second member transitions the rod holder between the aligned configuration and the angled configuration; wherein the rod holder comprises a mechanism for changing the rod holder between a clamping configuration and a release configuration; wherein the second member comprises a longitudinal channel for accessing the mechanism from the proximal end. a first member comprising an elongate tube with a proximal end and a distal end, with a passage extending from the proximal end to the distal end; a second member comprising an elongate shaft configured to move along the passage of the first member; a third member comprising a first end and a second end, the first end coupled to the second member; a rod holder comprising a leading end coupled to the distal end of the first member and a trailing end coupled to the second end of the third member, the rod holder configured to transition from an aligned configuration, wherein a longitudinal axis of the rod holder is generally parallel with a longitudinal axis of the second member, to an angled configuration wherein the longitudinal axis of the rod holder is at an angle to the longitudinal axis of the second member, the rod holder configured to releasably couple with a rod; and an actuator toward the proximal end of the first member configured to translate the second member, wherein translation of the second member transitions the rod holder between the aligned configuration and the angled configuration; wherein the rod holder comprises a mechanism for changing the rod holder between a clamping configuration and a release configuration; wherein the second member comprises a longitudinal channel for accessing the mechanism from the proximal end.
A high-density fine bubble-containing liquid producing method comprising the steps of a) producing initial liquid containing fine bubbles, wherein fine bubbles are defined as bubbles having diameters of less than 1 μm; and b) vaporizing part of said initial liquid to obtain high-density fine bubble-containing liquid. a) producing initial liquid containing fine bubbles, wherein fine bubbles are defined as bubbles having diameters of less than 1 μm; and b) vaporizing part of said initial liquid to obtain high-density fine bubble-containing liquid.
A label printer, comprising: a receiving area configured for receiving a cartridge comprising a roll of media, the receiving area comprising at least one feature for aligning a media guide of the cartridge as well as a cradle with a channel for aligning a body of the cartridge with a printing mechanism; components configured for adjusting sizing of the media to provide virtual label sizes; and a locking bar for retaining the media guide, characterized in that the locking bar comprises at least one alignment tab for mating with a slot disposed on the media guide. a receiving area configured for receiving a cartridge comprising a roll of media, the receiving area comprising at least one feature for aligning a media guide of the cartridge as well as a cradle with a channel for aligning a body of the cartridge with a printing mechanism; components configured for adjusting sizing of the media to provide virtual label sizes; and a locking bar for retaining the media guide, characterized in that the locking bar comprises at least one alignment tab for mating with a slot disposed on the media guide.