mhurhangee/ep-ind-claims huggingface dataset:
A front end accessory drive pulley, denoted as FEAD pulley, comprising an insert, the insert comprising: a first member insertable into the FEAD pulley such that the first member is rotatable within the FEAD pulley, the first member comprising: a cavity (20, 21, 22) for receipt of a second member, a first member body, and a first member limb, the first member being rotatable within the FEAD pulley so as to engage the first member limb with a part (230, 231) of the FEAD pulley; and a second member insertable into the cavity (20, 21, 22) of the first member and configured such that, when the first member is inserted into the FEAD pulley and rotated so as to engage the part (230, 231) of the FEAD pulley and when the second member is inserted into the cavity (20, 21, 22) of the first member the second member prevents rotation of the first member relative to the FEAD pulley. a first member insertable into the FEAD pulley such that the first member is rotatable within the FEAD pulley, the first member comprising: a cavity (20, 21, 22) for receipt of a second member, a first member body, and a first member limb, a cavity (20, 21, 22) for receipt of a second member, a first member body, and a first member limb, the first member being rotatable within the FEAD pulley so as to engage the first member limb with a part (230, 231) of the FEAD pulley; and a second member insertable into the cavity (20, 21, 22) of the first member and configured such that, when the first member is inserted into the FEAD pulley and rotated so as to engage the part (230, 231) of the FEAD pulley and when the second member is inserted into the cavity (20, 21, 22) of the first member the second member prevents rotation of the first member relative to the FEAD pulley.
An electronic circuit module configured to reduce signal losses, said module comprising: an electronic circuit device including: an integrated circuit die having an on-die passive component, an output configured to provide an output signal having an associated current to the electronic circuit module, a first lead and a second lead; a substrate including a trace for conducting the current from said output to an output of the electronic circuit module, the trace having a first bonding pad thereon electrically connected to the first lead and a second bonding pad located on the trace between the first bonding pad and the output of the electronic circuit module and being electrically connected to the second lead, said electronic circuit device configured such that said on-die passive component electrically connects to said first lead and said output signal electrically connects to the second lead, the current thereby being directed away from the first bonding pad, the electronic device being a radio frequency electronic circuit device, the output signal being a radio frequency output signal, and the current being a radio frequency current. an electronic circuit device including: an integrated circuit die having an on-die passive component, an output configured to provide an output signal having an associated current to the electronic circuit module, a first lead and a second lead; a substrate including a trace for conducting the current from said output to an output of the electronic circuit module, the trace having a first bonding pad thereon electrically connected to the first lead and a second bonding pad located on the trace between the first bonding pad and the output of the electronic circuit module and being electrically connected to the second lead, said electronic circuit device configured such that said on-die passive component electrically connects to said first lead and said output signal electrically connects to the second lead, the current thereby being directed away from the first bonding pad, the electronic device being a radio frequency electronic circuit device, the output signal being a radio frequency output signal, and the current being a radio frequency current.
A probe for optical imaging which guides light entering a tip side to a rear side, the probe comprising: a non-rotatably disposed fixed side optical fiber incorporated in a substantially tube-shaped catheter; a first optical path conversion means disposed on a tip side of the fixed side optical fiber and driven by a first motor to rotate, thereby emitting a light ray in a substantially radial direction; a rotation side optical fiber positioned between the fixed side optical fiber and the first optical path conversion means, optically connected by an optical rotary connector, and driven by a second motor to rotate; and a second optical path conversion means for rotating and emitting light by inclining an optical path to a tip side of the rotation side optical fiber by a minute angle with respect to a rotation center, wherein the fixed side optical fiber, the first optical path conversion means, the rotation side optical fiber, and the second optical path conversion means are collinearly disposed. a non-rotatably disposed fixed side optical fiber incorporated in a substantially tube-shaped catheter; a first optical path conversion means disposed on a tip side of the fixed side optical fiber and driven by a first motor to rotate, thereby emitting a light ray in a substantially radial direction; a rotation side optical fiber positioned between the fixed side optical fiber and the first optical path conversion means, optically connected by an optical rotary connector, and driven by a second motor to rotate; and a second optical path conversion means for rotating and emitting light by inclining an optical path to a tip side of the rotation side optical fiber by a minute angle with respect to a rotation center, wherein the fixed side optical fiber, the first optical path conversion means, the rotation side optical fiber, and the second optical path conversion means are collinearly disposed.
A computer-implemented method for quantifying diastolic function, the method comprising: receiving one or more electrocardiograms measured for a patient; converting the one or more electrocardiograms, using time-frequency transform, into time-frequency features; operating one or more machine-learned computational models on input comprising the time-frequency features to compute an estimate or estimates of one or more echocardiogram parameters indicative of diastolic function, the one or more machine-learned computational models having been trained using electrocardiogram data correlated with values of the one or more echocardiogram parameters obtained by echocardiography as ground-truth outputs; characterized by further comprising computing one or more additional indicators of diastolic function by operating one or more second machine-learned computational models on input comprising the estimate or estimates of the one or more echocardiogram parameters; wherein the one or more second machine-learned computational models comprise one or more ensemble models, and the one or more additional indicators of diastolic function comprise at least one of a left ventricular relaxation risk score, a lateral left ventricular relaxation index, a septal left ventricular relaxation index, or a composite left ventricular relaxation index. receiving one or more electrocardiograms measured for a patient; converting the one or more electrocardiograms, using time-frequency transform, into time-frequency features; operating one or more machine-learned computational models on input comprising the time-frequency features to compute an estimate or estimates of one or more echocardiogram parameters indicative of diastolic function, the one or more machine-learned computational models having been trained using electrocardiogram data correlated with values of the one or more echocardiogram parameters obtained by echocardiography as ground-truth outputs; characterized by further comprising computing one or more additional indicators of diastolic function by operating one or more second machine-learned computational models on input comprising the estimate or estimates of the one or more echocardiogram parameters; wherein the one or more second machine-learned computational models comprise one or more ensemble models, and the one or more additional indicators of diastolic function comprise at least one of a left ventricular relaxation risk score, a lateral left ventricular relaxation index, a septal left ventricular relaxation index, or a composite left ventricular relaxation index.
An ophthalmic product, comprising a sealed and sterilized package which includes a first packaging solution and a soft hydrogel contact lens which has been immersed and autoclaved in the first packaging solution in the sealed package, wherein the first packaging solution is a first buffered saline which includes a surfactant which is a poly(oxyethylene)-poly(oxybutylene) block copolymer and from about 0.1% to about 2% by weight of a lubricant which is a copolymer of N-vinylpyrrolidone and at least one amino-containing vinylic monomer, wherein the copolymer of N-vinylpyrrolidone and at least one amino-containing vinylic monomer has a molecular weight of at least 50,000 Daltons, wherein the amino-containing vinylic monomer is selected from the group consisting of alkylaminoalkylmethacrylate having 8-15 carbon atoms, alkylaminoalkylacrylate having 7-15 carbon atoms, dialkylaminoalkylmethacrylate having 8-20 carbon atoms, dialkylaminoalkylacrylate having 7-20 carbon atoms, and N-vinylalkylamide having 3-10 carbon atoms, wherein the packaging solution has a pH of from about 6.0 to about 8.0, an osmolality of from about 200 to about 450 mOsm/kg, and a viscosity of up to about 5.0 centipoises at 25°C, wherein the soft hydrogel contact lens has a reduction-in-water-contact-angle, designated as R WCA, of at least about 40% (preferably at least about 50%, more preferably at least about 60%, even more preferably at least about 70%, most preferably at least about 80%), wherein R WCA = WCA c − WCA t ̅ ̅ WCA c ̅ × 100 ⁢ % in which WCA c is the water contact angle of a control hydrogel contact lens immersed and autoclaved in a second buffered saline as control and WCA t is the water contact angle of the hydrogel contact lens immersed and autoclaved in the first buffered saline, wherein the soft hydrogel contact lens has a sustainable wettability as characterized by having a wearing-induced increase in water contact angle, designated "Δ WCA wearing ", of about 50% or less (preferably about 40% or less, more preferably about 30% or less, even more preferably about 20% or less), wherein Δ WCA wearing ̅ = WCA 16 ⁢ H ̅ − WCA OOP ̅ WCA OOP ̅ in which WCA OOP is the water contact angle of the hydrogel contact lens and is measured directly out of the package and WCA 16H is the water contact angle of the hydrogel contact lens and is measured after being transferred from the package to a container containing 1 mL of a phosphate buffered saline (pH = 7.0 to 7.4) and then fully immersed and gently agitated in the phosphate buffered saline for 16 hours at 34°C.
A method for amplifying circular DNA, comprising the following steps: forming a reaction mixture of circular DNA as a template with a reaction solution comprising: a first enzyme group that catalyzes replication of circular DNA; a second enzyme group that catalyzes an Okazaki fragment maturation and synthesizes two sister circular DNAs constituting a catenane; a third enzyme group that catalyzes a separation of two sister circular DNAs; a buffer; ATP; GTP, CTP and UTP; dNTP; a magnesium ion source; and an alkali metal ion source, wherein the circular DNA includes a replication origin sequence that can bind to an enzyme having DnaA activity; and incubating the reaction mixture formed in step in a temperature cycle of repeating an incubation at a temperature between 30°C and 80°C and an incubation at a temperature between 10°C and 27°C. forming a reaction mixture of circular DNA as a template with a reaction solution comprising: a first enzyme group that catalyzes replication of circular DNA; a second enzyme group that catalyzes an Okazaki fragment maturation and synthesizes two sister circular DNAs constituting a catenane; a third enzyme group that catalyzes a separation of two sister circular DNAs; a buffer; ATP; GTP, CTP and UTP; dNTP; a magnesium ion source; and an alkali metal ion source, wherein the circular DNA includes a replication origin sequence that can bind to an enzyme having DnaA activity; and a first enzyme group that catalyzes replication of circular DNA; a second enzyme group that catalyzes an Okazaki fragment maturation and synthesizes two sister circular DNAs constituting a catenane; a third enzyme group that catalyzes a separation of two sister circular DNAs; a buffer; ATP; GTP, CTP and UTP; dNTP; a magnesium ion source; and an alkali metal ion source, wherein the circular DNA includes a replication origin sequence that can bind to an enzyme having DnaA activity; and incubating the reaction mixture formed in step in a temperature cycle of repeating an incubation at a temperature between 30°C and 80°C and an incubation at a temperature between 10°C and 27°C.
A system, characterized by: a first transmitter, for transmitting a first signal to a fist transmission line; a second transmitter, for transmitting a second signal to a second transmission line; and a third transmitter, for transmitting a third signal to a third transmission line; wherein the system is capable of adopting any one of six different states, a state being defined by driving one transmitter (122, 124, 126) high, another transmitter (122, 124, 126) low and not driving the remaining transmitter (122, 124, 126), a coding jitter detector, coupled to the controller, for generating a coding jitter determination result according to a state transition of the system, wherein coding jitter is defined by the difference in zero crossing points that would occur at the output of three differential receivers, if the three signals were received by said receivers, and a controller (160; 632, 634, 636; 732, 734, 736), coupled to the first transmitter, the second transmitter and the third transmitter, for setting impedances of the first transmitter, the second transmitter and the third transmitter according to the coding jitter determination result. a first transmitter, for transmitting a first signal to a fist transmission line; a second transmitter, for transmitting a second signal to a second transmission line; and a third transmitter, for transmitting a third signal to a third transmission line; wherein the system is capable of adopting any one of six different states, a state being defined by driving one transmitter (122, 124, 126) high, another transmitter (122, 124, 126) low and not driving the remaining transmitter (122, 124, 126), a coding jitter detector, coupled to the controller, for generating a coding jitter determination result according to a state transition of the system, wherein coding jitter is defined by the difference in zero crossing points that would occur at the output of three differential receivers, if the three signals were received by said receivers, and a controller (160; 632, 634, 636; 732, 734, 736), coupled to the first transmitter, the second transmitter and the third transmitter, for setting impedances of the first transmitter, the second transmitter and the third transmitter according to the coding jitter determination result.
A cooling tower for cooling an industrial fluid, comprising: a tower having a perimeter that extends vertically about a vertical axis through which an airstream could flow; a chimney section; and a base section with an airflow inlet, wherein said tower has a first airflow path located at a first position along the vertical axis and a second airflow path located at a second position along the vertical axis, the cooling tower is a natural draft cooling tower, and the base section has an annular ring section, the annular ring section being made up from a plurality of finned tube bundles placed in a circular arrangement continuous about the perimeter, characterized in that the finned tube bundles are attached to a peripheral manifold via a bundle duct. a tower having a perimeter that extends vertically about a vertical axis through which an airstream could flow; a chimney section; and a base section with an airflow inlet, wherein said tower has a first airflow path located at a first position along the vertical axis and a second airflow path located at a second position along the vertical axis, the cooling tower is a natural draft cooling tower, and the base section has an annular ring section, the annular ring section being made up from a plurality of finned tube bundles placed in a circular arrangement continuous about the perimeter, characterized in that the finned tube bundles are attached to a peripheral manifold via a bundle duct.
An electrode plate for plasma etching made of a silicon member with a diameter exceeding 450 mmφ, wherein the silicon member is fabricated from a columnar pseudo-single-crystalline silicon ingot obtained by growing a single-crystal from each of a plurality of seed crystals by: placing the plurality of seed crystals that are made of a single-crystalline silicon plate at an inner circumferential part on the bottom part of a crucible having each of the plurality of seed crystals aligned in the same crystal orientation; and unidirectionally solidifying molten silicon in the crucible, the silicon member consists of: single-crystalline regions in the central region excluding a peripheral part thereof corresponding to the plurality of seed crystals at the inner circumferential part in the pseudo-single-crystalline ingot; and a non-single-crystalline region made of columnar crystals in the peripheral part of the silicon member, at least 1/3 or more of the area exposed on the surface of the entire part of the silicon member is occupied by the single-crystalline regions having the same plane direction, the crystal grain boundary density P (cm -1), which is defined by the formula P=LS/A, is 0.24 cm -1 or less in the silicon plate, LS (cm) being the total length of grain boundaries of crystal grains on the cross section of the electrode plate perpendicular to the solidification direction of the unidirectional solidification and A (cm 2) being the area of the cross section, and multiple through-holes are formed in the single crystalline part of the silicon member. the silicon member is fabricated from a columnar pseudo-single-crystalline silicon ingot obtained by growing a single-crystal from each of a plurality of seed crystals by: placing the plurality of seed crystals that are made of a single-crystalline silicon plate at an inner circumferential part on the bottom part of a crucible having each of the plurality of seed crystals aligned in the same crystal orientation; and unidirectionally solidifying molten silicon in the crucible, the silicon member consists of: single-crystalline regions in the central region excluding a peripheral part thereof corresponding to the plurality of seed crystals at the inner circumferential part in the pseudo-single-crystalline ingot; and a non-single-crystalline region made of columnar crystals in the peripheral part of the silicon member, at least 1/3 or more of the area exposed on the surface of the entire part of the silicon member is occupied by the single-crystalline regions having the same plane direction, the crystal grain boundary density P (cm -1), which is defined by the formula P=LS/A, is 0.24 cm -1 or less in the silicon plate, LS (cm) being the total length of grain boundaries of crystal grains on the cross section of the electrode plate perpendicular to the solidification direction of the unidirectional solidification and A (cm 2) being the area of the cross section, and multiple through-holes are formed in the single crystalline part of the silicon member.
A method of forming crystallized semiconductor particles, comprising: generating vapor of any one of silicon (Si), germanium (Ge) and silicon-germanium (SiGe) in a vacuumed aggregation chamber; transporting the vapor in the vacuumed aggregation chamber towards a vacuumed deposition chamber within which a substrate is held; condensing the vapor into condensed liquid nanoparticles during the transporting of the vapor; forming amorphous semiconductor particles in the vacuumed aggregation chamber by cooling the liquid nanoparticles; transporting the amorphous semiconductor particles formed in the vacuumed aggregation chamber to the vacuumed deposition chamber; and applying a vapor of a metal catalyst of any one of silver (Ag), aluminum (Al), gold (Au), nickel (Ni), palladium (Pd) and copper (Cu) to the amorphous semiconductor particles while still in transit to the substrate in the vacuumed deposition chamber to induce crystallization of at least a portion of the amorphous semiconductor particles via the metal catalyst in the transit, thereby depositing the crystallized semiconductor particles with the metal catalyst attached thereto onto the substrate. generating vapor of any one of silicon (Si), germanium (Ge) and silicon-germanium (SiGe) in a vacuumed aggregation chamber; transporting the vapor in the vacuumed aggregation chamber towards a vacuumed deposition chamber within which a substrate is held; condensing the vapor into condensed liquid nanoparticles during the transporting of the vapor; forming amorphous semiconductor particles in the vacuumed aggregation chamber by cooling the liquid nanoparticles; transporting the amorphous semiconductor particles formed in the vacuumed aggregation chamber to the vacuumed deposition chamber; and applying a vapor of a metal catalyst of any one of silver (Ag), aluminum (Al), gold (Au), nickel (Ni), palladium (Pd) and copper (Cu) to the amorphous semiconductor particles while still in transit to the substrate in the vacuumed deposition chamber to induce crystallization of at least a portion of the amorphous semiconductor particles via the metal catalyst in the transit, thereby depositing the crystallized semiconductor particles with the metal catalyst attached thereto onto the substrate.
A control unit for controlling an engine torque making it possible to exit a freewheel operating mode of a motor vehicle provided with an acceleration member and a braking member, the exit from the freewheel operating mode being able to be triggered by the depression of the acceleration member or by the actuation of the braking member, the control unit being provided with a speed regulator, this speed regulator being configured to calculate an engine torque level to be controlled by the control unit for reaching the target engine speed, this control unit being characterized in that it is configured, as long as the target engine speed is not reached, to - compare the engine torque level calculated by the speed regulator against a predefined engine torque threshold level; - control the engine torque level given by the minimum value between the engine torque threshold level and the engine torque level calculated by the speed regulator, the engine torque threshold level being associated with an interval of degrees of depression of the acceleration member and with an interval of instantaneous engine speeds of the motor vehicle. - compare the engine torque level calculated by the speed regulator against a predefined engine torque threshold level; - control the engine torque level given by the minimum value between the engine torque threshold level and the engine torque level calculated by the speed regulator, the engine torque threshold level being associated with an interval of degrees of depression of the acceleration member and with an interval of instantaneous engine speeds of the motor vehicle.