mhurhangee/patent-ind-claim-en huggingface dataset:
A silicone hydrogel contact lens comprising: a polymeric lens body that is the reaction product of a polymerizable composition comprising: a) at least one mono-functional acrylate-containing siloxane monomer; b) at least one bi-functional acrylate-containing siloxane monomer represented by formula (II), wherein R 1 of formula (II) is selected from either hydrogen or a methyl group, R 2 of formula (II) is selected from either hydrogen or a C 1-4 hydrocarbon group, m of formula (II) represents an integer of from 0 to 10; n of formula (II) represents an integer of from 4 to 100, and a and b represent integers of 1 or more; c) at least one hydrophilic vinyl-containing monomer; and d) at least one vinyl-containing cross-linking agent, characterized in that : the at least one mono-functional acrylate-containing siloxane monomer has a molecular weight of less than 1000; and the polymerizable composition has a molar ratio of total amount of hydrophilic vinyl-containing monomer to total amount of acrylate-containing siloxane monomer of from 5:1 to 30:1, respectively. a polymeric lens body that is the reaction product of a polymerizable composition comprising: a) at least one mono-functional acrylate-containing siloxane monomer; b) at least one bi-functional acrylate-containing siloxane monomer represented by formula (II), wherein R 1 of formula (II) is selected from either hydrogen or a methyl group, R 2 of formula (II) is selected from either hydrogen or a C 1-4 hydrocarbon group, m of formula (II) represents an integer of from 0 to 10; n of formula (II) represents an integer of from 4 to 100, and a and b represent integers of 1 or more; c) at least one hydrophilic vinyl-containing monomer; and d) at least one vinyl-containing cross-linking agent, a) at least one mono-functional acrylate-containing siloxane monomer; b) at least one bi-functional acrylate-containing siloxane monomer represented by formula (II), wherein R 1 of formula (II) is selected from either hydrogen or a methyl group, R 2 of formula (II) is selected from either hydrogen or a C 1-4 hydrocarbon group, m of formula (II) represents an integer of from 0 to 10; n of formula (II) represents an integer of from 4 to 100, and a and b represent integers of 1 or more; c) at least one hydrophilic vinyl-containing monomer; and d) at least one vinyl-containing cross-linking agent, the at least one mono-functional acrylate-containing siloxane monomer has a molecular weight of less than 1000; and the polymerizable composition has a molar ratio of total amount of hydrophilic vinyl-containing monomer to total amount of acrylate-containing siloxane monomer of from 5:1 to 30:1, respectively.
A method comprising: obtaining pressure measurements associated with a fluid that passes through a flow restrictor , the pressure measurements identifying pressures upstream and downstream from the flow restrictor; generating estimated flow measurements based on the pressure measurements, the step of generating the estimated flow measurements comprises: generating a coefficient of velocity versus opening or position curve using historical data from the upstream and downstream pressure measurements, flow measurements and valve opening or position values; obtaining current pressure measurements upstream and downstream from the flow restrictor ; obtaining current valve opening for the flow restrictor; and estimating a loss coefficient between the current pressure measurements upstream and downstream from the flow restrictor as a function of the valve opening or position based on the generated coefficient of velocity versus valve opening or position curve associated with the current valve opening; comparing the estimated flow measurements and actual flow measurements generated by a flow meter that is fluidly coupled to the flow restrictor; and determining whether a problem exists based on the comparison. obtaining pressure measurements associated with a fluid that passes through a flow restrictor , the pressure measurements identifying pressures upstream and downstream from the flow restrictor; generating estimated flow measurements based on the pressure measurements, the step of generating the estimated flow measurements comprises: generating a coefficient of velocity versus opening or position curve using historical data from the upstream and downstream pressure measurements, flow measurements and valve opening or position values; obtaining current pressure measurements upstream and downstream from the flow restrictor ; obtaining current valve opening for the flow restrictor; and estimating a loss coefficient between the current pressure measurements upstream and downstream from the flow restrictor as a function of the valve opening or position based on the generated coefficient of velocity versus valve opening or position curve associated with the current valve opening; generating a coefficient of velocity versus opening or position curve using historical data from the upstream and downstream pressure measurements, flow measurements and valve opening or position values; obtaining current pressure measurements upstream and downstream from the flow restrictor ; obtaining current valve opening for the flow restrictor; and estimating a loss coefficient between the current pressure measurements upstream and downstream from the flow restrictor as a function of the valve opening or position based on the generated coefficient of velocity versus valve opening or position curve associated with the current valve opening; comparing the estimated flow measurements and actual flow measurements generated by a flow meter that is fluidly coupled to the flow restrictor; and determining whether a problem exists based on the comparison.
A bayonet fastener assembly , comprising: a pin including a head and a rod extending longitudinally therefrom, the rod including a locking tab proximal the head ; and an expansion anchor including a locking portion and an expansion sleeve extending longitudinally therefrom, the locking portion defining a slot for the locking tab , the expansion sleeve including first and second longitudinal portions that are spaced apart from each other; wherein rotation of the pin within the expansion anchor causes the locking tab to engage the slot to thereby prevent retraction of the pin from the expansion anchor , wherein the expansion sleeve includes an outer diameter that varies along its length and comprises a maximum diameter, and wherein the first and second longitudinal portions are adapted to flex inwardly toward one another when the expansion anchor is inserted into an opening to thereby temporarily decrease the maximum diameter of the expansion sleeve a pin including a head and a rod extending longitudinally therefrom, the rod including a locking tab proximal the head ; and an expansion anchor including a locking portion and an expansion sleeve extending longitudinally therefrom, the locking portion defining a slot for the locking tab , the expansion sleeve including first and second longitudinal portions that are spaced apart from each other; wherein rotation of the pin within the expansion anchor causes the locking tab to engage the slot to thereby prevent retraction of the pin from the expansion anchor , wherein the expansion sleeve includes an outer diameter that varies along its length and comprises a maximum diameter, and wherein the first and second longitudinal portions are adapted to flex inwardly toward one another when the expansion anchor is inserted into an opening to thereby temporarily decrease the maximum diameter of the expansion sleeve
Conductive multi-layer panel for the cockpit of a vehicle, in particular a dashboard for the cockpit of a motor vehicle, wherein said panel has a multilayer structure consisting of a plurality of layers of substantially equal shape and size, superimposed and firmly coupled to one another, wherein one of the layers of said multilayer structure consists of a flexible printed circuit board , said flexible printed circuit board extending substantially over the entire surface of said panel, wherein said flexible printed circuit board has cavities at seats intended to receive the electrical and electronic devices, which have respective electrical connectors and are associated with said panel, and is provided with conductive tracks extending up to the perimeter of said cavities .
A monoepoxy compound represented by the following Formula : (wherein R 1 to R 6 are each independently selected from the group consisting of a hydrogen atom, an alkyl group, and an alkoxy group).
An organic electroluminescent element comprising one or more light-emitting layers between an anode and a cathode opposing each other, wherein at least one light-emitting layer is formed by vacuum vapor deposition and contains a first host selected from compounds represented by the following general formula , a second host selected from compounds represented by the following general formula , and a light-emitting dopant material; wherein, ring A is an aromatic hydrocarbon ring represented by formula , ring B is a heterocycle represented by formula , and ring A and ring B are each fused at any position with rings adjacent thereto; Ar 1 is a phenyl group, a biphenyl group, or a terphenyl group; each R is independently an aliphatic hydrocarbon group having 1 to 10 carbons, an aromatic hydrocarbon group having 6 to 10 carbons, or an aromatic heterocyclic group having 3 to 12 carbons; a, b, and c each independently represent an integer of 0 to 3; and m and n each independently represent an integer of 0 to 2, wherein, Ar 2 and Ar 3 represent an aromatic hydrocarbon group having 6 to 14 carbons or a group in which two aromatic hydrocarbon groups each having 6 to 14 carbons are linked to each other, wherein the two aromatic hydrocarbon groups linked to each other may be the same or may differ; L 1 represents a direct bond or a phenylene group of formula , formula , or formula ; and L 2 represents a phenylene group of formula . wherein, ring A is an aromatic hydrocarbon ring represented by formula , ring B is a heterocycle represented by formula , and ring A and ring B are each fused at any position with rings adjacent thereto; Ar 1 is a phenyl group, a biphenyl group, or a terphenyl group; each R is independently an aliphatic hydrocarbon group having 1 to 10 carbons, an aromatic hydrocarbon group having 6 to 10 carbons, or an aromatic heterocyclic group having 3 to 12 carbons; a, b, and c each independently represent an integer of 0 to 3; and m and n each independently represent an integer of 0 to 2, wherein, Ar 2 and Ar 3 represent an aromatic hydrocarbon group having 6 to 14 carbons or a group in which two aromatic hydrocarbon groups each having 6 to 14 carbons are linked to each other, wherein the two aromatic hydrocarbon groups linked to each other may be the same or may differ; L 1 represents a direct bond or a phenylene group of formula , formula , or formula ; and L 2 represents a phenylene group of formula .
An integrated circuit configured to drive a fluid ejection device comprising a plurality of fluid actuation devices, the integrated circuit comprising: a plurality of contact pads comprising a first contact pad and a second contact pad ; a plurality of pulldown devices , each pulldown device to present a load to the corresponding contact pad that is to be measured to determine proper electrical connection of the contract pad when the pulldown device is enabled, each of the pulldown devices electrically coupled to a corresponding contact pad by a respective first signal path ; and control logic to enable at least a portion of the pulldown devices in response to both a logic low signal on the first contact pad and a logic low signal on the second contact pad , the control logic coupled to the plurality of pulldown devices by respective second signal paths (EN, EN-2, EN-3) different to the first signal paths . a plurality of contact pads comprising a first contact pad and a second contact pad ; a plurality of pulldown devices , each pulldown device to present a load to the corresponding contact pad that is to be measured to determine proper electrical connection of the contract pad when the pulldown device is enabled, each of the pulldown devices electrically coupled to a corresponding contact pad by a respective first signal path ; and control logic to enable at least a portion of the pulldown devices in response to both a logic low signal on the first contact pad and a logic low signal on the second contact pad , the control logic coupled to the plurality of pulldown devices by respective second signal paths (EN, EN-2, EN-3) different to the first signal paths .
A method of controlling the position of the X-ray tube of a CT system , comprising: acquiring an angular position (AP) signal output by an angular position (AP) sensor arranged on a static component of a gantry of the CT system , an index pulse (IP) signal output by an index pulse (IP) sensor arranged on the static component of the gantry and encoder data output by a motor , wherein the AP signal is acquired after the AP sensor detects a plurality of check points arranged at even intervals on a rotary component of the gantry , and the IP signal is acquired after the IP sensor detects a reference check point arranged on the rotary component of the gantry , determining a homing positioning signal AP0 of the AP signal based on the AP signal and the IP signal, wherein the homing positioning signal AP0 is used to determine the starting point of the period of rotation of the X-ray tube , and the IP signal is used to determine the period of rotation of the X-ray tube , utilizing the encoder data to calculate the encoder data containing AP signal based on the determined homing positioning signal AP0, wherein the encoder data containing AP signal is the AP signal calibrated by use of the encoder data, and controlling the position of the X-ray tube based on the encoder data containing AP signal. acquiring an angular position (AP) signal output by an angular position (AP) sensor arranged on a static component of a gantry of the CT system , an index pulse (IP) signal output by an index pulse (IP) sensor arranged on the static component of the gantry and encoder data output by a motor , wherein the AP signal is acquired after the AP sensor detects a plurality of check points arranged at even intervals on a rotary component of the gantry , and the IP signal is acquired after the IP sensor detects a reference check point arranged on the rotary component of the gantry , determining a homing positioning signal AP0 of the AP signal based on the AP signal and the IP signal, wherein the homing positioning signal AP0 is used to determine the starting point of the period of rotation of the X-ray tube , and the IP signal is used to determine the period of rotation of the X-ray tube , utilizing the encoder data to calculate the encoder data containing AP signal based on the determined homing positioning signal AP0, wherein the encoder data containing AP signal is the AP signal calibrated by use of the encoder data, and controlling the position of the X-ray tube based on the encoder data containing AP signal.
A sintered nuclear fuel pellet , comprising a matrix of UO 2 and particles dispersed in the matrix, wherein the particles comprise a uranium-containing material , wherein each of the particles is encapsulated by a metallic coating , wherein the uranium-containing material has a uranium density that is higher than the uranium density of UO 2 , characterized in that the metallic coating consists of at least one metal chosen from the group of Mo, W, Cr, V and Nb.
A golf ball comprising a main body that includes a core and a cover positioned outside the core, and a paint layer positioned outside the main body , the paint layer being laminated on the cover , wherein the paint layer comprises an indentation depth, that is measured by: 1. cutting the golf ball including the paint layer along a plane passing through a central point of the golf ball; and 2. pressing a cross-section of the paint layer exposed as a result of the above cutting in a direction perpendicular to the cross-section and measuring an indentation depth of the paint layer in the direction perpendicular to the cross-section, wherein the conditions at the measurement are as follows: Nanoindenter: "ENT-2100" manufactured by ELINOX INC. Temperature: 30°C Penetrator: a Berkovich penetrator with 65.03° AS (h) =26.43 h 2 Number of penetrations: 500 steps Step interval: 20msec (100 mgf) and the load of the penetrator is gradually increased until reaching 50 mgf, and wherein the indentation depth is measured when the load is 30 mgf; wherein either the cover has a Shore D hardness of not less than 20 and not greater than 50, and the indentation depth is not less than 400 nm and not greater than 3000 nm; or wherein the cover has a Shore D hardness of not less than 50 and not greater than 80, and the indentation depth is not less than 300 nm and not greater than 2500 nm. 1. cutting the golf ball including the paint layer along a plane passing through a central point of the golf ball; and 2. pressing a cross-section of the paint layer exposed as a result of the above cutting in a direction perpendicular to the cross-section and measuring an indentation depth of the paint layer in the direction perpendicular to the cross-section, Nanoindenter: "ENT-2100" manufactured by ELINOX INC. Temperature: 30°C Penetrator: a Berkovich penetrator with 65.03° AS (h) =26.43 h 2 Number of penetrations: 500 steps Step interval: 20msec (100 mgf) and the load of the penetrator is gradually increased until reaching 50 mgf, and wherein the indentation depth is measured when the load is 30 mgf; wherein either the cover has a Shore D hardness of not less than 20 and not greater than 50, and the indentation depth is not less than 400 nm and not greater than 3000 nm; or wherein the cover has a Shore D hardness of not less than 50 and not greater than 80, and the indentation depth is not less than 300 nm and not greater than 2500 nm.
Clamping device for fixing a clamping rail between a first wall surface or a ceiling surface and a rod arranged parallel to the first wall surface or the ceiling surface, having a connecting part which is configured to fasten the clamping device with the clamping rail , and having at least one first receiving device for receiving the rod , wherein the connecting part has a connecting sleeve arrangeable between the clamping rail and the rod , within which a tensioning element is arranged axially, wherein by means of the tensioning element a tension is applicable to the first receiving device with respect to the connecting part , wherein the connecting part has a support device , by means of which the clamping device can be supported in a direction perpendicular to a longitudinal axis of the connecting sleeve on the first wall surface or ceiling surface, wherein for fastening the clamping device with the clamping rail , the connecting part has at least one protrusion which is configured to engage in a profile of the clamping rail , characterized in that the connecting part is made in one piece, comprising the connecting sleeve , the support device and the at least one protrusion .
Rack for receiving and storing laboratory vessels containing samples, microorganisms, cell cultures or the like, which rack comprises a housing , at least one laboratory vessel holder that extends along a loading axis (L) in the housing and which is adapted for inserting and vertically stacking the laboratory vessels therein, with a loading opening being provided in the housing for loading vessels into the holder , and an unloading opening being provided on an underside distally located from said loading opening for unloading vessels from the holder , which unloading opening can be closed by means of a closing mechanism arranged in the housing , which closing mechanism is provided with a slide , said slide being a shut-off fitting that is adapted to be moved in a plane substantially perpendicular to the material flow to be shut off, and which slide can be moved to a closing position located within the discharge opening for blocking the opening, and can be moved to an opening position located away from the discharge opening for releasing the opening, characterized in that said closing mechanism is used to rotate the slide from the closing position into the opening position and vice versa.
An assembly (500; 600) for forming multiple nacelle components , comprising: a plurality of dies (504, 530; 536, 542; 602, 604, 610, 612) arranged about a central axis (A), a first one (504; 536; 604) of the plurality of dies (504... 612) having a first wall and a first cavity (510; 540) extending through the first wall and a second one (530; 542) of the plurality of dies (504...612) having a second wall (508; 532) and a second cavity extending through the second wall (508; 532), wherein the first wall and the second wall (508; 532) are configured to sandwich a pair of metal blanks therebetween, characterised in that the first one (504; 536; 604) of the plurality of dies (504, 530, 536, 542; 602, 604, 610, 612) is a first radial die (504; 536; 604) configured for arrangement within a circular pattern and wherein the first wall (506; 538) is a first circumferentially facing wall (506; 538). a plurality of dies (504, 530; 536, 542; 602, 604, 610, 612) arranged about a central axis (A), a first one (504; 536; 604) of the plurality of dies (504... 612) having a first wall and a first cavity (510; 540) extending through the first wall and a second one (530; 542) of the plurality of dies (504...612) having a second wall (508; 532) and a second cavity extending through the second wall (508; 532), a first one (504; 536; 604) of the plurality of dies (504... 612) having a first wall and a first cavity (510; 540) extending through the first wall and a second one (530; 542) of the plurality of dies (504...612) having a second wall (508; 532) and a second cavity extending through the second wall (508; 532), wherein the first wall and the second wall (508; 532) are configured to sandwich a pair of metal blanks therebetween, characterised in that the first one (504; 536; 604) of the plurality of dies (504, 530, 536, 542; 602, 604, 610, 612) is a first radial die (504; 536; 604) configured for arrangement within a circular pattern and wherein the first wall (506; 538) is a first circumferentially facing wall (506; 538).