mhurhangee/patent-ind-claim-en huggingface dataset:
A method for operating a tufting machine , the method comprising; feeding a backing medium through a tufting region using backing rollers ; reciprocating a needle bar at the tufting region to drive needles in to and out of the backing medium, the needle bar comprising at least one row of needles; receiving loops of yarn on gauge parts on the opposite side of the backing medium; controlling the operation of the tufting machine using a controller which receives pattern data for a carpet to be tufted; operating a needle selection mechanism controlled by the controller based on the pattern data by selecting a needle or group of needles with yarn required for the pattern such that the selected needle or group of needles is driven by the needle bar through the backing medium to form a tuft or tufts while a needle or group of needles that is not required for the pattern is not selected by the needle selection mechanism and is not driven through the backing medium as the needle reciprocates; feeding yarn via a yarn feed mechanism comprising a plurality of actively driven yarn drives each driving a respective yarn to a respective needle, the yarn drives being at a location between a yarn creel and the needle ; the method being characterised by operating the yarn feed mechanism to deliver at least 70% of the yarn required for a tuft as the needle moves from top dead centre to bottom dead centre. feeding a backing medium through a tufting region using backing rollers ; reciprocating a needle bar at the tufting region to drive needles in to and out of the backing medium, the needle bar comprising at least one row of needles; receiving loops of yarn on gauge parts on the opposite side of the backing medium; controlling the operation of the tufting machine using a controller which receives pattern data for a carpet to be tufted; operating a needle selection mechanism controlled by the controller based on the pattern data by selecting a needle or group of needles with yarn required for the pattern such that the selected needle or group of needles is driven by the needle bar through the backing medium to form a tuft or tufts while a needle or group of needles that is not required for the pattern is not selected by the needle selection mechanism and is not driven through the backing medium as the needle reciprocates; feeding yarn via a yarn feed mechanism comprising a plurality of actively driven yarn drives each driving a respective yarn to a respective needle, the yarn drives being at a location between a yarn creel and the needle ; the method being characterised by operating the yarn feed mechanism to deliver at least 70% of the yarn required for a tuft as the needle moves from top dead centre to bottom dead centre.
A lighting system comprising: a smoke detector comprising a detector , a power source an alarm and control means; and a light socket , wherein the light socket is mounted to either a wall or a ceiling, where at least the detector is integrated into the light socket without obstructing the ability of the light socket to directly receive a separate removable light source, where the light socket is controlled by way of a wall switch, the wall switch also incorporating the control means, and where the control means includes a set of switches , the set of switches including a switch that operates to turn on or turn off a light source and at least one of the following: a test switch; a reset switch; a combined test and reset switch, configured to send a signal to the detector. a smoke detector comprising a detector , a power source an alarm and control means; and a light socket , wherein the light socket is mounted to either a wall or a ceiling, where at least the detector is integrated into the light socket without obstructing the ability of the light socket to directly receive a separate removable light source, where the light socket is controlled by way of a wall switch, the wall switch also incorporating the control means, and where the control means includes a set of switches , the set of switches including a switch that operates to turn on or turn off a light source and at least one of the following: a test switch; a reset switch; a combined test and reset switch, configured to send a signal to the detector.
A data transmission method implemented by a terminal device, comprising: receiving (S110) a downlink data packet transmitted by a network device, wherein the downlink data packet comprises a reflective quality of service indication, RQI; determining (S120) a working mode of the RQI to be a first working mode or a second working mode, wherein the first working mode indicates that the RQI represents whether a first mapping relationship satisfies a reflective quality of service, QoS, mapping, and the second working mode indicates that the RQI represents whether both of the first mapping relationship and a second mapping relationship satisfy the reflective QoS mapping, or neither of the first mapping relationship and the second mapping relationship satisfies the reflective QoS mapping, the first mapping relationship is a mapping relationship from an Internet Protocol, IP, flow to a QoS flow, the second mapping relationship is a mapping relationship from a QoS flow to a data radio bearer, DRB, wherein the first mapping relationship satisfies the reflective QoS mapping represents determining to use the first mapping relationship of the downlink data packet as the first mapping relationship of an uplink data packet, wherein the second mapping relationship satisfies the reflective QoS mapping represents determining to use the second mapping relationship of the downlink data packet as the second mapping relationship of an uplink data packet; and determining (S130) the first mapping relationship and the second mapping relationship of the uplink data packet according to the working mode of the RQI and the RQI. receiving (S110) a downlink data packet transmitted by a network device, wherein the downlink data packet comprises a reflective quality of service indication, RQI; determining (S120) a working mode of the RQI to be a first working mode or a second working mode, wherein the first working mode indicates that the RQI represents whether a first mapping relationship satisfies a reflective quality of service, QoS, mapping, and the second working mode indicates that the RQI represents whether both of the first mapping relationship and a second mapping relationship satisfy the reflective QoS mapping, or neither of the first mapping relationship and the second mapping relationship satisfies the reflective QoS mapping, the first mapping relationship is a mapping relationship from an Internet Protocol, IP, flow to a QoS flow, the second mapping relationship is a mapping relationship from a QoS flow to a data radio bearer, DRB, wherein the first mapping relationship satisfies the reflective QoS mapping represents determining to use the first mapping relationship of the downlink data packet as the first mapping relationship of an uplink data packet, wherein the second mapping relationship satisfies the reflective QoS mapping represents determining to use the second mapping relationship of the downlink data packet as the second mapping relationship of an uplink data packet; and determining (S130) the first mapping relationship and the second mapping relationship of the uplink data packet according to the working mode of the RQI and the RQI.
Amorphous precipitated silica particles with an oil absorption value of 85 cm 3 /100g or less, a weight median particle diameter d 50 of less than 3 μm and a d 90 value, wherein 90% by weight of the particles have a diameter less than the d 90 value, of 6 μm or less, a d 99 value, wherein 99% by weight of the particles have a diameter less than the d 99 value, of 10 μm or less.
A system for monitoring contact quality of a first body surface electrode, the system comprising: a first body surface electrode ; a generator configured to provide ablation energy; an electronic control unit (ECU) configured to be in electrical communication with the first body surface electrode and the generator ; a circuit connecting the first body surface electrode to the ECU ; wherein the ECU is configured to send an interrogation signal through the circuit to the first body surface electrode and receive a sense signal from the first body surface electrode through the circuit in response to the interrogation signal; and wherein the ECU determines the contact quality of the first body surface electrode by processing the sense signal, characterized in that , the interrogation signal is provided at a first frequency if the ablation energy is being provided and at a second frequency if the ablation energy is not being provided. a first body surface electrode ; a generator configured to provide ablation energy; an electronic control unit (ECU) configured to be in electrical communication with the first body surface electrode and the generator ; a circuit connecting the first body surface electrode to the ECU ; wherein the ECU is configured to send an interrogation signal through the circuit to the first body surface electrode and receive a sense signal from the first body surface electrode through the circuit in response to the interrogation signal; and wherein the ECU determines the contact quality of the first body surface electrode by processing the sense signal, characterized in that , the interrogation signal is provided at a first frequency if the ablation energy is being provided and at a second frequency if the ablation energy is not being provided.
An information processing device , adapted to recognize the three-dimensional position and posture of an object, comprising: a first input unit , configured to receive an input of a three-dimensional model information for generating a three-dimensional model of the object to be recognized; a template generation unit , configured to generate a two-dimensional template which shows a shape of an upper edge of the object to be recognized on the basis of the three-dimensional model information, by extracting feature points of the upper edge from the three-dimensional model information of the object to be recognized; a coordinate relationship identification unit , configured to generate a coordinate relationship information indicating a relationship between three-dimensional coordinates of the three-dimensional model and two-dimensional coordinates when the three-dimensional model is imaged; a second input unit , configured to receive an input of a captured image obtained by capturing an image of the object to be recognized; a matching unit , configured to match the captured image with the two-dimensional template ; and a recognition unit , configured to recognize a three-dimensional position and posture of the object to be recognized by referencing the coordinate relationship information with respect to the object to be recognized in the captured image which is detected according to two-dimensional matching results of the matching unit . a first input unit , configured to receive an input of a three-dimensional model information for generating a three-dimensional model of the object to be recognized; a template generation unit , configured to generate a two-dimensional template which shows a shape of an upper edge of the object to be recognized on the basis of the three-dimensional model information, by extracting feature points of the upper edge from the three-dimensional model information of the object to be recognized; a coordinate relationship identification unit , configured to generate a coordinate relationship information indicating a relationship between three-dimensional coordinates of the three-dimensional model and two-dimensional coordinates when the three-dimensional model is imaged; a second input unit , configured to receive an input of a captured image obtained by capturing an image of the object to be recognized; a matching unit , configured to match the captured image with the two-dimensional template ; and a recognition unit , configured to recognize a three-dimensional position and posture of the object to be recognized by referencing the coordinate relationship information with respect to the object to be recognized in the captured image which is detected according to two-dimensional matching results of the matching unit .
A male element for a box-making machine, comprising a central core , being also provided with: - two back plates having through holes and arranged on two opposite sides of the central core ; - two pressure means (8, 8'; 18, 18'); - a rotating shaft for adjusting the position of the two pressure means (8, 8'; 18, 18') wherein said shaft passes through the through holes of the back plates , said rotating shaft also having two ends threaded in opposite directions; - two sliding parts , each of said sliding parts being joined to one of the threaded ends of the shaft ; - two pressure means (8, 8'; 18, 18'), each of said pressure means (8, 8'; 18, 18') being solidly connected to one of the sliding parts , characterized in that - runners (5a, 5b; 5a', 5b') are arranged on both sides of each of the sliding parts ; and in that - each of the sliding parts comprises an upper element (6a; 6a') and a lower element , the upper elements (6a; 6a') of the sliding parts being guided by longitudinal grooves provided in runners (5a, 5b; 5a', 5b'). - two back plates having through holes and arranged on two opposite sides of the central core ; - two pressure means (8, 8'; 18, 18'); - a rotating shaft for adjusting the position of the two pressure means (8, 8'; 18, 18') wherein said shaft passes through the through holes of the back plates , said rotating shaft also having two ends threaded in opposite directions; - two sliding parts , each of said sliding parts being joined to one of the threaded ends of the shaft ; - two pressure means (8, 8'; 18, 18'), each of said pressure means (8, 8'; 18, 18') being solidly connected to one of the sliding parts , characterized in that - runners (5a, 5b; 5a', 5b') are arranged on both sides of each of the sliding parts ; and in that - each of the sliding parts comprises an upper element (6a; 6a') and a lower element , the upper elements (6a; 6a') of the sliding parts being guided by longitudinal grooves provided in runners (5a, 5b; 5a', 5b'). - each of the sliding parts comprises an upper element (6a; 6a') and a lower element , the upper elements (6a; 6a') of the sliding parts being guided by longitudinal grooves provided in runners (5a, 5b; 5a', 5b').
Loop-forming process, which comprises the following actions: • at least two system components are moved in one groove of a needle bed relative to said needle bed in a first direction (y) which corresponds to their longitudinal direction, • said system components contact threads for forming loops with their loop-forming means and are involved in the forming of loops at least for a period of time during the loop forming process, • at least one spacer is placed between two adjacent system components which are moved in the groove , • whereby this spacer contributes to the adjustment of the distance between the loop-forming means of the two adjacent system components in a second direction (x) which corresponds to the direction of the width of the grooves of the needle bed ,whereby said at least one spacer abstains from the loop-forming process, characterized in • that the at least one spacer is moved together and is immovably connected with one of said two adjacent system components • and that the at least one spacer is at least temporarily moved inside a section of the longitudinal (y) extension of the groove , • in which the spacer and the second one of said two adjacent system components are in mechanical contact with each other and/or in which said spacer is in mechanical contact with a second spacer which is moved together with the second one of said two adjacent system components . • at least two system components are moved in one groove of a needle bed relative to said needle bed in a first direction (y) which corresponds to their longitudinal direction, • said system components contact threads for forming loops with their loop-forming means and are involved in the forming of loops at least for a period of time during the loop forming process, • at least one spacer is placed between two adjacent system components which are moved in the groove , • whereby this spacer contributes to the adjustment of the distance between the loop-forming means of the two adjacent system components in a second direction (x) which corresponds to the direction of the width of the grooves of the needle bed ,whereby said at least one spacer abstains from the loop-forming process, characterized in • that the at least one spacer is moved together and is immovably connected with one of said two adjacent system components • and that the at least one spacer is at least temporarily moved inside a section of the longitudinal (y) extension of the groove , • in which the spacer and the second one of said two adjacent system components are in mechanical contact with each other and/or in which said spacer is in mechanical contact with a second spacer which is moved together with the second one of said two adjacent system components .
A control unit that is adapted to determine a change in transpulmonary pressure (ΔPtp) in a patient, wherein said control unit is operable to: a) set a breathing apparatus in a first mode of operation for ventilating said patient with a first Positive End Expiratory Pressure (PEEP) of equal inspiratory and expiratory volume; b) set said breathing apparatus in a second mode of operation for ventilating said patient over a plurality of breathing cycles with a second PEEP level starting from said first PEEP level until equal inspiratory and expiratory tidal volumes are reached at said second PEEP level, wherein said second PEEP is based on a target PEEP different from said first PEEP; c) determine a difference between said first PEEP and said second PEEP (ΔPEEP), and d) determine said change in transpulmonary pressure (ΔPtp) as said difference between said first PEEP of equal inspiratory and expiratory volume and said second PEEP of equal inspiratory and expiratory volume (ΔPEEP). a) set a breathing apparatus in a first mode of operation for ventilating said patient with a first Positive End Expiratory Pressure (PEEP) of equal inspiratory and expiratory volume; b) set said breathing apparatus in a second mode of operation for ventilating said patient over a plurality of breathing cycles with a second PEEP level starting from said first PEEP level until equal inspiratory and expiratory tidal volumes are reached at said second PEEP level, wherein said second PEEP is based on a target PEEP different from said first PEEP; c) determine a difference between said first PEEP and said second PEEP (ΔPEEP), and d) determine said change in transpulmonary pressure (ΔPtp) as said difference between said first PEEP of equal inspiratory and expiratory volume and said second PEEP of equal inspiratory and expiratory volume (ΔPEEP).
A method for reference time setting of the displays of a sympathetic watch by a sympathetic clock , with which said watch forms a sympathetic assembly including a connection mechanism including at least two distinct transmission lines between said clock and said watch when said watch is deposited in a receptacle included in said clock , in a transfer position, said watch including at least one resonator , and a display gear train and a finishing gear train, and, or else a stop mechanism arranged to stop the operation of said resonator , or else a coupling mechanism allowing to separate the display from the finishing gear train, or else both such a stop mechanism and such a coupling mechanism, and said watch including at least one hour display and one minute display , a reference position of which is defined, said watch including at least one power storage barrel, for power supplying at least one resonator , characterised in that use is made of one said watch including a coupling mechanism between a display gear train (705; 707; 708) and a finishing gear train , and including a hammer movable between a coiled position where it is retained by a pawl and tensioned by a spring, and an active position where said hammer is arranged to rest on the periphery of a first hour heart cam carried by an hour wheel included in said watch , so as to constrain said first hour heart cam in rotation to its smallest radius , and in that a cycle including three phases is executed, a first phase during which, by a first displacement of an interface between said clock and said watch , said coupling mechanism is uncoupled by said interface which actuates it to its uncoupled position, and in that , after uncoupling said coupling-clutch , said interface releases said hammer , which returns by said first hour heart cam the hour display , and, by the timer, the minute display to said reference position, and a second phase where the position of said displays (4; 5) is maintained, for time setting, isolating or recoiling said hammer , and a third phase where, by a second displacement of said interface between said clock and said watch , to reconnect said finishing gear train with said display gear train, said coupling mechanism is coupled by said interface which actuates it towards its coupled position and during which third phase it is possible to recoil said hammer by said interface.