mhurhangee/patent-ind-claim-en huggingface dataset:
A connector comprising: a terminal that includes an electric contact portion and a wire connection portion , the electric contact portion having a lock end edge , and the wire connection portion having a core wire caulked portion behind the electric contact portion with a recessed portion provided therebetween; a resin housing that has an insertion opening on a rear end surface thereof to mount the terminal and a terminal accommodation chamber to accommodate the terminal inserted from the insertion opening ; a flexible lock piece that is integrally formed with the housing , and has a lock surface that locks the lock end edge of the terminal inserted into the terminal accommodation chamber to prevent the terminal from slipping out; an inclined surface that is formed on the flexible lock piece , pressed by the terminal during insertion, and moves the lock surface in an unlocking direction; and a recessed clearance portion that is formed on the inclined surface , characterized in that the electric contact portion has the lock end edge at a rear end thereof in an insertion direction, and the recessed clearance portion has a bottom surface located farther from the core wire caulked portion of the insertion-completed terminal and the vicinity thereof than the inclined surface , wherein the bottom surface is oppositely disposed to the core wire caulked portion of the inserted terminal and the vicinity thereof. a terminal that includes an electric contact portion and a wire connection portion , the electric contact portion having a lock end edge , and the wire connection portion having a core wire caulked portion behind the electric contact portion with a recessed portion provided therebetween; a resin housing that has an insertion opening on a rear end surface thereof to mount the terminal and a terminal accommodation chamber to accommodate the terminal inserted from the insertion opening ; a flexible lock piece that is integrally formed with the housing , and has a lock surface that locks the lock end edge of the terminal inserted into the terminal accommodation chamber to prevent the terminal from slipping out; an inclined surface that is formed on the flexible lock piece , pressed by the terminal during insertion, and moves the lock surface in an unlocking direction; and a recessed clearance portion that is formed on the inclined surface , characterized in that the electric contact portion has the lock end edge at a rear end thereof in an insertion direction, and the recessed clearance portion has a bottom surface located farther from the core wire caulked portion of the insertion-completed terminal and the vicinity thereof than the inclined surface , wherein the bottom surface is oppositely disposed to the core wire caulked portion of the inserted terminal and the vicinity thereof.
A bearing assembly comprising a rolling element bearing and an acoustic emission unit , the rolling element bearing is provided with at least a bearing seal made of metal , characterized in that the acoustic emission unit is arranged on an outer surface of the bearing seal , the outer surface of the bearing seal being an air side of the bearing seal, which air side is the opposite side of a lubricant-facing surface of the bearing seal, wherein the acoustic emission unit is configured to measure the acoustic emission of the rolling element bearing .
Device for measuring throughflow processes of fluids having an inlet , an outlet , a flow housing in which the fluid flows, a drivable displacement meter arranged in the flow housing a bypass line via which the displacement meter can be bypassed, a pressure difference transducer , which is arranged in the bypass line and is arranged in the flow housing and an evaluation and control unit by means of which the drivable displacement meter can be controlled as a function of the pressure difference applied to the pressure difference sensor , characterized in that a cooling channel through which coolant can flow is configured in the flow housing , a section of which extends around a displacement chamber of the displacement meter , which is formed as a groove on a surface of the flow housing facing a drive unit and is closed by the drive unit . an inlet , an outlet , a flow housing in which the fluid flows, a drivable displacement meter arranged in the flow housing a bypass line via which the displacement meter can be bypassed, a pressure difference transducer , which is arranged in the bypass line and is arranged in the flow housing and an evaluation and control unit by means of which the drivable displacement meter can be controlled as a function of the pressure difference applied to the pressure difference sensor , characterized in that a cooling channel through which coolant can flow is configured in the flow housing , a section of which extends around a displacement chamber of the displacement meter , which is formed as a groove on a surface of the flow housing facing a drive unit and is closed by the drive unit .
An implantable apparatus for providing tumor treating fields, TTFields, to a target site of a subject, the apparatus comprising: a support structure ; and at least one electrode array (104; 104a-f) disposed on the support structure , characterized in that the at least one electrode array (104; 104a-f) comprises a central electrode and a plurality of circumferential electrodes spaced around the central electrode , with the central electrode and one or more of the circumferential electrodes being configured to be activated in sequence or randomly by an electric potential to provide tumor treating fields of changing orientation through the target site of the subject. a support structure ; and at least one electrode array (104; 104a-f) disposed on the support structure , characterized in that the at least one electrode array (104; 104a-f) comprises a central electrode and a plurality of circumferential electrodes spaced around the central electrode , with the central electrode and one or more of the circumferential electrodes being configured to be activated in sequence or randomly by an electric potential to provide tumor treating fields of changing orientation through the target site of the subject.
Method for the cooling and heat recovery from materials at very high temperature, where the aforesaid method comprises at least the following steps of: - conveying material at very high temperature into a mixing system ; - transporting the aforesaid material exiting the mixing system inside a continuous flow channel ; - carrying out a step of heat recovery from the transported material; - wherein said method is characterized in that of comprising the further following phases: feeding a flow of material exiting at low temperature from the aforesaid continuous flow channel to a flow dividing system ; - recovering a part of the low-temperature material exiting the aforesaid flow dividing system ; - moving the part of recovered material at low temperature by means of a moving and recirculating system ; and - conveying the recovered material at low temperature for mixing it with the material at very high temperature in the mixing system . - conveying material at very high temperature into a mixing system ; - transporting the aforesaid material exiting the mixing system inside a continuous flow channel ; - carrying out a step of heat recovery from the transported material; - wherein said method is characterized in that of comprising the further following phases: feeding a flow of material exiting at low temperature from the aforesaid continuous flow channel to a flow dividing system ; - recovering a part of the low-temperature material exiting the aforesaid flow dividing system ; - moving the part of recovered material at low temperature by means of a moving and recirculating system ; and - conveying the recovered material at low temperature for mixing it with the material at very high temperature in the mixing system .
A user apparatus configured to communicate with a first base station (2a; 2b) and a second base station (2b; 2a) in a communication system which supports carrier aggregation in dual connectivity, the user apparatus comprising: a measurement unit configured to measure a timing gap between a reception timing of a first radio signal received from the first base station and a reception timing of a second radio signal received from the second base station; and a transmission unit configured to transmit information indicating the timing gap measured by the measurement unit to the first base station or the second base station, wherein the information indicating the timing gap is a discretized value using a predetermined number or an index number corresponding to a predetermined time gap, and wherein the measurement unit is configured to determine whether the timing gap is less than a predetermined threshold value, and in the case where the timing gap is less than the predetermined threshold value, the transmission unit is configured to transmit information indicating that the timing gap is less than the predetermined threshold value to the first base station (2a; 2b) or the second base station (2b; 2a). a measurement unit configured to measure a timing gap between a reception timing of a first radio signal received from the first base station and a reception timing of a second radio signal received from the second base station; and a transmission unit configured to transmit information indicating the timing gap measured by the measurement unit to the first base station or the second base station, wherein the information indicating the timing gap is a discretized value using a predetermined number or an index number corresponding to a predetermined time gap, and wherein the measurement unit is configured to determine whether the timing gap is less than a predetermined threshold value, and in the case where the timing gap is less than the predetermined threshold value, the transmission unit is configured to transmit information indicating that the timing gap is less than the predetermined threshold value to the first base station (2a; 2b) or the second base station (2b; 2a).
A method performed by a network node for downlink pilot signal assignment and transmission, and for data transmission, wherein the network node has a plurality of antenna elements distributed over an area, wherein the network node and at least one wireless device are operating in a wireless communications network , and wherein the method comprises: - determining a respective Channel State Information, CSI, and a respective channel hardening degree for the at least one wireless device based on an uplink pilot signal received from the at least one wireless device ; - determining a respective mobility condition for the at least one wireless device ; - based on one or more out of: the determined respective CSI, the determined respective channel hardening degree and the determined respective mobility condition, obtaining a respective pilot utility metric for the at least one wireless device ; wherein the respective pilot utility metric is a function that considers the respective mobility condition, the respective channel hardening degree, and the respective CSI, at each wireless device ; - assigning a respective downlink pilot signal to at least one wireless device out of the at least one wireless devices having a respective pilot utility metric exceeding a predetermined threshold value; and - transmitting , to the at least one wireless device out of the at least one wireless devices , data and an assigned respective downlink pilot signal. - determining a respective Channel State Information, CSI, and a respective channel hardening degree for the at least one wireless device based on an uplink pilot signal received from the at least one wireless device ; - determining a respective mobility condition for the at least one wireless device ; - based on one or more out of: the determined respective CSI, the determined respective channel hardening degree and the determined respective mobility condition, obtaining a respective pilot utility metric for the at least one wireless device ; wherein the respective pilot utility metric is a function that considers the respective mobility condition, the respective channel hardening degree, and the respective CSI, at each wireless device ; - assigning a respective downlink pilot signal to at least one wireless device out of the at least one wireless devices having a respective pilot utility metric exceeding a predetermined threshold value; and - transmitting , to the at least one wireless device out of the at least one wireless devices , data and an assigned respective downlink pilot signal.
An electrode assembly , comprising a first electrode plate , a second electrode plate , and a separator disposed between the first electrode plate and the second electrode plate , and the first electrode plate and the second electrode plate being wound or stacked to form the electrode assembly ; wherein the electrode assembly further comprises: a first electrode tab disposed on the first electrode plate ; and an insulating layer comprising a first portion , wherein the first portion is disposed on the first electrode plate , characterized in that no part of the second electrode plate is disposed between the first portion and the first electrode tab , wherein the insulating layer is disposed between the first electrode tab and the second electrode plate . a first electrode tab disposed on the first electrode plate ; and an insulating layer comprising a first portion , wherein the first portion is disposed on the first electrode plate , characterized in that no part of the second electrode plate is disposed between the first portion and the first electrode tab , wherein the insulating layer is disposed between the first electrode tab and the second electrode plate .
A signal processing apparatus comprising: a coefficient update unit configured to approximate a characteristic of an optical transmission line of an optical signal by a first tap coefficient vector of which an L0 norm is a predetermined value or less; a zeroing unit configured to generate a second tap coefficient vector by replacing, with 0, a tap coefficient of which an absolute value is less than a threshold, among tap coefficients of the first tap coefficient vector; and an adaptive filter configured to perform adaptive equalization processing, based on the second tap coefficient vector, on a digital signal corresponding to an optical signal received via the optical transmission line, wherein the coefficient update unit approximates the characteristic of the optical transmission line by the first tap coefficient vector using an algorithm of a steepest descent method having a constraint that the L0 norm is a predetermined value or less. a coefficient update unit configured to approximate a characteristic of an optical transmission line of an optical signal by a first tap coefficient vector of which an L0 norm is a predetermined value or less; a zeroing unit configured to generate a second tap coefficient vector by replacing, with 0, a tap coefficient of which an absolute value is less than a threshold, among tap coefficients of the first tap coefficient vector; and an adaptive filter configured to perform adaptive equalization processing, based on the second tap coefficient vector, on a digital signal corresponding to an optical signal received via the optical transmission line, wherein the coefficient update unit approximates the characteristic of the optical transmission line by the first tap coefficient vector using an algorithm of a steepest descent method having a constraint that the L0 norm is a predetermined value or less.
An ultra-high solids content primer coating composition comprising: (i) 5.0 to 50 wt% of at least one bisphenol F epoxy resin; (ii) 1.5 to 12 wt% of at least one silane; (iii) 0 to 20 wt% of at least one hydrocarbon resin; (iv) 1.0 to 15 wt% of at least one polyfunctional reactive diluent; and (v) at least one curing agent; wherein said composition has a solids content of at least 90 wt% measured according to ASTM D5201-05; wherein said composition has a viscosity of200 to 800 cps at 23°C and 50% RH (ASTM D4287); and wherein the ratio between active hydrogen equivalents in the curing agent and epoxy equivalents of the coating composition is in the range 50:100 to 120:100. (i) 5.0 to 50 wt% of at least one bisphenol F epoxy resin; (ii) 1.5 to 12 wt% of at least one silane; (iii) 0 to 20 wt% of at least one hydrocarbon resin; (iv) 1.0 to 15 wt% of at least one polyfunctional reactive diluent; and (v) at least one curing agent; wherein said composition has a solids content of at least 90 wt% measured according to ASTM D5201-05; wherein said composition has a viscosity of200 to 800 cps at 23°C and 50% RH (ASTM D4287); and wherein the ratio between active hydrogen equivalents in the curing agent and epoxy equivalents of the coating composition is in the range 50:100 to 120:100. wherein said composition has a solids content of at least 90 wt% measured according to ASTM D5201-05; wherein said composition has a viscosity of200 to 800 cps at 23°C and 50% RH (ASTM D4287); and wherein the ratio between active hydrogen equivalents in the curing agent and epoxy equivalents of the coating composition is in the range 50:100 to 120:100.
A yarn heater comprising: a thermal insulation box provided with a yarn inlet through which a yarn (Y) is introduced and a yarn outlet through which the yarn (Y) is taken out; and rollers (11a to 11e) which are housed in the thermal insulation box , include a yarn heating roller (11a to 11e) configured to heat the yarn (Y), and are configured to feed the yarn (Y) from the yarn inlet to the yarn outlet , the yarn (Y) introduced into the thermal insulation box through the yarn inlet being wound onto each of the rollers (11a to 11e) at a winding angle of less than 270 degrees, the yarn heater further comprising a first flow blocker provided for at least a last roller of the rollers (11a to 11e) that is most downstream in a yarn running direction, the first flow blocker extending from a position outside the last roller toward a part of a wound region of the outer circumference of the last roller , the wound region being a region where the yarn (Y) is wound and the part being a downstream part in the yarn running direction. a thermal insulation box provided with a yarn inlet through which a yarn (Y) is introduced and a yarn outlet through which the yarn (Y) is taken out; and rollers (11a to 11e) which are housed in the thermal insulation box , include a yarn heating roller (11a to 11e) configured to heat the yarn (Y), and are configured to feed the yarn (Y) from the yarn inlet to the yarn outlet , the yarn (Y) introduced into the thermal insulation box through the yarn inlet being wound onto each of the rollers (11a to 11e) at a winding angle of less than 270 degrees, the yarn heater further comprising a first flow blocker provided for at least a last roller of the rollers (11a to 11e) that is most downstream in a yarn running direction, the first flow blocker extending from a position outside the last roller toward a part of a wound region of the outer circumference of the last roller , the wound region being a region where the yarn (Y) is wound and the part being a downstream part in the yarn running direction.
An acrylic polymer having a lactone ring structure in the main chain, the acrylic polymer having a melt flow rate of 2 g/10 minutes to 9 g/10 minutes as measured at 230°C under a load of 3.8 kg according to JIS K 7210 and a molecular weight distribution (Mw/Mn) of 1.5 to 2.2 determined by gel permeation chromatography.
A drape including an integrated guide wire use device, comprising a drape body and a guide wire bag , wherein a back surface of the guide wire bag is movably connected to the drape body wherein the back surface of the guide wire bag is glued and connected with an adhesive fabric ; and the adhesive fabric is adhered to the drape body , and wherein an inner cavity of the guide wire bag is fixedly connected with a guide wire insertion block ; wherein the guide wire insertion block has a material of sponge or soft rubberized fabric; and a first side of the guide wire bag is movably connected with a protective bag ; wherein the protective bag is adhered with a thermoplastic rubber folding film , and the thermoplastic rubber folding film is adhered to the guide wire bag ; and wherein the protective bag is glued and connected with an adhesive tape ; wherein a front surface of the guide wire bag opposite to the back surface of the guide wire bag is provided with a disinfection connection port ; and a second side of the guide wire bag opposite to the first side of the guide wire bag is sealed and connected with a drain plug .
Method for manufacturing an olefin having N carbon atoms, wherein a process gas is formed using dehydrogenation, which gas contains at least the olefin having N carbon atoms, a paraffin having N carbon atoms and a hydrocarbon having N - 1 carbon atoms, and wherein using at least one part of the process gas a fractional charge is formed, which is subjected to a cryogenic separation in which the fractional charge is cooled gradually across a plurality of temperature levels, and condensates from the fractional charge are deposited, wherein the condensates are subjected at least in part to a first cryogenic rectification with a first gas fraction and a first liquid fraction being obtained, wherein the first gas fraction contains at least the olefin having N carbon atoms in a smaller proportion than in the condensates and the hydrocarbon having N - 1 carbon atoms in a higher proportion than in the condensates, characterized in that the first gas fraction is subjected at least in part to a second cryogenic rectification, using a liquid reflux, which predominantly or exclusively contains the hydrocarbon having N - 1 carbon atoms, in which the first gas fraction is depleted of the olefin having N carbon atoms.
A genetically engineered C1-fixing microorganism comprising a disruptive mutation in CAETHG_2794-99 (HytABCDE1E2), wherein the disruptive mutation reduces or eliminates the expression or activity of the CAETHG_2794-99 (HytABCDE1E2), further wherein the microorganism is derived from the parental microorganism Clostridium autoethanogenum.